# ZEDEC OS - COMPREHENSIVE DEPLOYMENT GUIDE V2 ## Complete Audit of All Contracts, Functions, and Profitability Strategies **Version:** 2.0.0 **Generated:** 2026-04-15 **Architect:** Michael Laurence Curzi (36N9) **Total Contracts:** 117 **Total Chains:** 13 --- ## TABLE OF CONTENTS 1. [Executive Summary](#executive-summary) 2. [Contract Inventory by Chain](#contract-inventory-by-chain) 3. [Contract Function Reference](#contract-function-reference) 4. [Profitability Strategy Guide](#profitability-strategy-guide) 5. [Forensic Audit Bookkeeping](#forensic-audit-bookkeeping) 6. [Patch Strategy](#patch-strategy) 7. [Remote Patching from Polygon Mainframe](#remote-patching-from-polygon-mainframe) --- ## EXECUTIVE SUMMARY This guide provides a complete audit of all 117 deployed contracts across 13 blockchain networks. Each contract's functions, parameters, return values, and usage instructions are documented in detail. ### System Status - **Total Contracts:** 117 - **EVM Chains:** 7 (Polygon, Ethereum, Arbitrum, Optimism, Base, BSC, Avalanche) - **Non-EVM Chains:** 6 (Tron, Xahau, NEAR, SUI, Cosmos, XRP) - **Mainframe:** Polygon (Chain ID 137) - **System Status:** FULLY AUTONOMOUS ### On-Chain Verification Summary - **Live Contracts:** 113 - **No Code:** 1 (MatrixReflector on Arbitrum) - **Error:** 0 (Veno846 checksum fixed, PatriciosCliffsideBanking removed - has NO_CODE) - **Unsupported:** 1 (Tron SelfExcitingDynamo) ### Key Systems - **LiFoNel:** Living Fiber Operational Network (7/7 chains operational) - **QuantumMeshShield:** Triad mesh with auto-rotating secrets (7/7 chains) - **SharedSecret:** Circular dependency ring (7/8 chains) - **Fortification14Sense:** 14-Sense Array for proactive monitoring (7/7 chains) - **G9GenesisWire:** Crown contract wiring all G1-G8 (LIVE on Polygon) - **Holographic System:** GhostFactory + Hub + Router (Multi-chain) - **FusionReactor:** Holographic fusion architecture (Multi-chain) - **GenomicSeedForge:** Procedural generation engine (Multi-chain) - **MatrixReflector:** Reverse XOR routing system (Multi-chain) - **SicilianCrownsPalace:** Sovereign treasury management (Multi-chain) - **MediciFeeDepositor:** Auto-fee collection to NEAR (Polygon) --- ## CONTRACT INVENTORY BY CHAIN ### POLYGON (Chain ID: 137) - MAINFRAME **Status:** PRIMARY_MAINFRAME **Contracts:** 35 #### Core Systems - **LiFoNel:** 0xf3064325428D1D0C0BAD8Ce166008a42f41a95e9 (9235 bytes) ✅ LIVE - **QuantumMeshShield:** 0x2a2063f5a834eD556fD3FF47C84e1D11137EeebB (5263 bytes) ✅ LIVE - **SharedSecret:** 0x7Bb20A955bAcfcc2A9234E81dDD372112c4C7D38 (2711 bytes) ✅ LIVE - **Fortification14Sense:** 0x47e93495718BD36831FC144233396c08E1cbeD13 (VERIFIED IN GUIDE) #### G9 Genesis Wire - **G9GenesisWire:** 0xA94fd8be5929c45d693BC0D82cA4A5CEf2567B4d (9605 bytes) ✅ LIVE - **LightFiber:** 0xc05A88d42d74E36D44d2cbeD2876335AF2695f48 (4287 bytes) ✅ LIVE - **GhostFactory:** 0xe31A104E3bD9895D4d473819B0A6EFF253d51D1e (3014 bytes) ✅ LIVE - **HolographicHub:** 0x86403AB049beb8eD8Ae43Cc33275a784B2B6Bf3c (8319 bytes) ✅ LIVE - **HolographicRouter:** 0x7223653AA46f10B9c91b3584A83a24366A3B3D93 (4416 bytes) ✅ LIVE - **FusionReactor:** 0x2eE348Fb6EcF10BB0f901ea45F62E3c5246a81a8 (3489 bytes) ✅ LIVE - **GenomicSeedForge:** 0xD004789B1C356D26C76B5E7A2a4b969579c1E8b3 (4277 bytes) ✅ LIVE #### Financial Systems - **Veno846_MultiCurrency:** 0x9A0066a31155a9b4F9Cea1b11c84279860ce7A09 (21472 bytes) ✅ LIVE - **ViralityLoop:** 0x55609D157850E2F55df902c058941B6b20A8d4e4 (8665 bytes) ✅ LIVE - **ElitePerception:** 0xbD6852BbdB0d88792da9a7725759CCF64D215915 (4245 bytes) ✅ LIVE - **Fulcrum:** 0xa74640E625cD5da73a9591ea3B667d84fe4bfA29 (9638 bytes) ✅ LIVE - **NineFormsOfCapital:** 0x63cD97047F4090f390D8af9C16644B7eE895EF01 (8418 bytes) ✅ LIVE - **FundingObfuscation:** 0x4F23c9d7A64d0CA534faa589BfD02be403D4AaD6 (5209 bytes) ✅ LIVE - **StargatePortal:** 0x7223653AA46f10B9c91b3584A83a24366A3B3D93 (4416 bytes) ✅ LIVE - **ZeroPointEnergy:** 0xcbEC01a294fDfC3d6bb550CAC398EBF12bFdF025 (2976 bytes) ✅ LIVE - **VeniceGasStation:** 0xb9b0F8603a84Ddc53f548EecC79C193dfE534B2a (4690 bytes) ✅ LIVE - **OmniChainSingularity:** 0x10b21490CB797f1FB30CCaB48593AD83a17D71D5 (6910 bytes) ✅ LIVE - **FlashLoanBootstrap:** 0xe60BF7e3777393516b0fc7fe28762BE31Bedd770 (7703 bytes) ✅ LIVE - **GEN6_UnifiedPlatform:** 0x94de2a6fead296F1ea4709081012D8f02EBb7Bc9 (8336 bytes) ✅ LIVE - **VinoPerpetuals:** 0x3De556d4Ed00A648eCC20AB8F1cEF692Dc777320 (15270 bytes) ✅ LIVE - **CredibilityScoring:** 0x7E0908e634cefaCCeAe548700c8DA98e601D472A (11237 bytes) ✅ LIVE - **ContraInsurance:** 0x4A86d001F017973F9Fe85Cc5f9A9EDFF671b249d (17673 bytes) ✅ LIVE - **BankingSyndicates:** 0xCa6FAbBB76a7B775B1d80828371b3E1e40585118 (21193 bytes) ✅ LIVE #### New Systems (Added in V2) - **SovereignOutpost_Mainframe:** 0x8bCb312b3080c5A42AbB22DDaf29092De3fd83F6 (4603 bytes) ✅ LIVE - **MatrixReflector:** 0x830A02B9b3604375Fe8CB1b853233aa059AC8094 (19310 bytes) ✅ LIVE - **SicilianCrownsPalace:** 0xB6D02F92Bf91C4eA64a8537fF1EEAFFCB2420840 (8949 bytes) ✅ LIVE - **TemporalTrustMatrix:** 0x41E9eEec00CcA95d847930a010E4459669B5A316 (1869 bytes) ✅ LIVE - **PlungerMechanism:** 0xa82d708BD4b1aC12c5B618720850B8f0be2882d8 (1828 bytes) ✅ LIVE - **MediciFeeDepositor:** 0xdd8daF2f5a0A830F63F552bFBEaa876EB8AEb8e1 (5755 bytes) ✅ LIVE #### Decoy Honeypots - **CrossChainVault_decoy:** 0xFf9242E73B841FBD7301f6290F72bf7d72C729df (1292 bytes) ✅ LIVE - **MeshRelay_decoy:** 0xd898A2626f341eccE31D606E3f3907114e38A857 (1355 bytes) ✅ LIVE ### ETHEREUM (Chain ID: 1) **Status:** PARTIAL **Contracts:** 13 #### Core Systems - **LiFoNel:** 0xBc670dc708eeC3EAA7A081F6bCfF975178355701 (9235 bytes) ✅ LIVE - **QuantumMeshShield:** 0xA8CCad64D0E64de9AEe19554b18c89Cfc4702a08 (5263 bytes) ✅ LIVE - **SharedSecret:** 0x1935CFc20c5f2CC0f07c23a3bDE04928D35468cC (2711 bytes) ✅ LIVE - **Fortification14Sense:** 0x5DD23a4c0f8bA8ab29Ba5d9cB2EB7C108845E5e8 (VERIFIED IN GUIDE) #### Financial Systems - **OliveOil:** 0xEeEc8b2F8993A6CA363713000953B8B0865376f9 (5212 bytes) ✅ LIVE - **PayZeroDayCore:** 0xCda1D38eb604f701Fa20b9222DB2A95563A86bff (6387 bytes) ✅ LIVE - **MediciExchange:** 0x6c9aFaA5405185D2405DdEbaE289550083F9a451 (7123 bytes) ✅ LIVE - **StateBridge:** 0xD3Cd7d9d070a740Bf2eE538025A8ac4c3895E849 (6489 bytes) ✅ LIVE - **SovereignInstruments:** 0x27Aa2b976A48cec1D1a8CE7Fbb1ECBf92a6FAF75 (7711 bytes) ✅ LIVE - **OmniQuantumV2:** 0x89b61B552cD831550e9B27C7631CB54d5e1Ba046 (3584 bytes) ✅ LIVE - **OmniQuantumV1_honeypot:** 0x70B191823A63627850327F3605e716a5a3551B3A (1640 bytes) ✅ LIVE #### New Systems (Added in V2) - **MatrixReflector:** 0x6Df2FD73DF13B5e8b20571d7DeA8Ae043239C1D1 (19310 bytes) ✅ LIVE #### Decoy Honeypots - **CrossChainVault_decoy:** 0x7C90b8a7390DE60B7511141FFaEE0eBe60BFD395 (1292 bytes) ✅ LIVE - **MeshRelay_decoy:** 0x7F780d924ED71DDDE2e5c6c734B2Cd8683323969 (1355 bytes) ✅ LIVE ### ARBITRUM (Chain ID: 42161) **Status:** DEPLOYED **Contracts:** 15 #### Core Systems - **LiFoNel:** 0x70B191823A63627850327F3605e716a5a3551B3A (9235 bytes) ✅ LIVE - **QuantumMeshShield:** 0x736D3a63D22D335D4AD93d9cf0791B0E1725711a (5263 bytes) ✅ LIVE - **SharedSecret:** 0x58ef2AcB38864301e005AF11f43D7c65A8937416 (2711 bytes) ✅ LIVE - **Fortification14Sense:** 0x89215B4ac49b4cfac1828F9EB9f078FD3f8B9f75 (VERIFIED IN GUIDE) #### Infrastructure - **SovereignSatellite_v1:** 0x0249BFDA2CA47689b255bbE11d3A174fa8e9263E (3489 bytes) ✅ LIVE - **SovereignSatellite_v2:** 0x908E654815557007B4aA2A80b45E21Ff8a99Dea4 (3489 bytes) ✅ LIVE - **ChainReactionOverride:** 0xBbfde92987E91EBe9c5530d1E8aAfeCcFc57c2B0 (2709 bytes) ✅ LIVE - **PeripheryAnchor:** 0x2f6589E8a50b9Fd343ed3994Cc078170Ca8a4A5E (1573 bytes) ✅ LIVE #### Holographic System - **GenomicSeedForge:** 0x7F70c8Aafc35cB47d77665596114b1eFA1b7c212 (4277 bytes) ✅ LIVE - **FusionReactor:** 0x614EbA12e9fb952605b875f1A541de82d83C5D8D (3489 bytes) ✅ LIVE - **HolographicHub:** 0xda3aEAD202B045Ee89709eE245EC71B20eC2A21B (8319 bytes) ✅ LIVE - **HolographicRouter:** 0x73eD3A63970084b3eC2902823e20B5eba5A91948 (3420 bytes) ✅ LIVE - **GhostFactory:** 0x621b20a8E27ae5d4ec7675537bD0bB734a98e027 (3014 bytes) ✅ LIVE #### New Systems (Added in V2) - **MatrixReflector:** 0x3582C2c605A295e0b1cD0d4C7F7Fea32Ef4ead44 ❌ NO_CODE #### Decoy Honeypots - **CrossChainVault_decoy:** 0x32aE07C462E40dd2Ef8CEd02A00E4cA70B47E802 (1292 bytes) ✅ LIVE - **MeshRelay_decoy:** 0x9cc21ac9a7CA86adEe028e4aB8e5732D4d8f4Dfd (1355 bytes) ✅ LIVE ### OPTIMISM (Chain ID: 10) **Status:** DEPLOYED **Contracts:** 17 #### Core Systems - **LiFoNel:** 0x0649C7f2A497e5A4d8fCd4689D625c7b6022CD9e (9235 bytes) ✅ LIVE - **QuantumMeshShield:** 0x5D919a8789c7026ACF48E13d07d7600140d2C70b (5263 bytes) ✅ LIVE - **SharedSecret:** 0x7c84A540B7766502158B3d9df9e3C89B3aDc6067 (2711 bytes) ✅ LIVE - **Fortification14Sense:** 0x8bfeA76095Ac91Cf2415C5D4B5C18f3D2F45d786 (VERIFIED IN GUIDE) #### Infrastructure - **HolographicFuelStation:** 0x7596F6EB8c25022D353B627D409E9431e624d21B (8216 bytes) ✅ LIVE - **ChainReactionOverride:** 0xC050d3eBC9fA3Ad8904fa6a61cBcA750a693e983 (2709 bytes) ✅ LIVE - **PeripheryAnchor:** 0xCe0B25B13d5653700E6e1C683E980d9d2F6d7207 (1573 bytes) ✅ LIVE - **KeeperRelay:** 0x68afdAc9a8eA6824cb93D9674dE4d20dE7C21613 (3336 bytes) ✅ LIVE #### Holographic System - **GenomicSeedForge:** 0xf6Deb84c42eedf7eD06069E8462a4df2BA7cffca (4277 bytes) ✅ LIVE - **FusionReactor:** 0x4dc3F4A55a0c1A9f0303DcD2c210091D0D41C518 (3489 bytes) ✅ LIVE - **HolographicHub:** 0xbD7e418b8e148257Db60C52Cb1CE1358ed58C6e0 (8319 bytes) ✅ LIVE - **HolographicRouter:** 0xE995e8A1f145D2f4EEb8dD68e30876926aa1e38c (3420 bytes) ✅ LIVE - **GhostFactory:** 0x2085AA5477CB08bB365936FCdD4AD43a0DFd5E06 (3014 bytes) ✅ LIVE #### New Systems (Added in V2) - **MatrixReflector:** 0x509F2881aEff98A324c06c473358895A9D911965 (19310 bytes) ✅ LIVE - **SicilianCrownsPalace:** 0x349b5B4c31CA4cE69fdaFEcfC54bfc4e11A579d9 (8949 bytes) ✅ LIVE - **Veno846_MultiCurrency:** 0x690a404b15bAAC0f4CD83F94c32ADC334c81F014 (21472 bytes) ✅ LIVE #### Decoy Honeypots - **CrossChainVault_decoy:** 0xD9a0b73B0361cA1D7178bfF59529fe155E9271A1 (1292 bytes) ✅ LIVE - **MeshRelay_decoy:** 0xbf31F12B3a1880A7e7cD4877f11385d3562Cd8FE (1355 bytes) ✅ LIVE ### BASE (Chain ID: 8453) **Status:** DEPLOYED **Contracts:** 12 #### Core Systems - **LiFoNel:** 0x357e574e55b349087AeDea864c2011bF6e74aFc7 (9235 bytes) ✅ LIVE - **QuantumMeshShield:** 0x037E72efC41be8A79Ef6Cb5853421AE4B48084a7 (5263 bytes) ✅ LIVE - **SharedSecret:** 0xA1a984B738242856F8F04287b179caC83c53Ae89 (2711 bytes) ✅ LIVE - **Fortification14Sense:** 0x01dc69C4762bb910ef65F2d19C574B0A8a74984c (VERIFIED IN GUIDE) #### Infrastructure - **CryptographicEssenceLab:** 0x0cC489133f65D17ECF3b2537507509adc3014ec3 (15009 bytes) ✅ LIVE - **ChainReactionOverride:** 0x033FC4DBc600aF1B00CE5AD6A016E1575813442E (2709 bytes) ✅ LIVE - **PeripheryAnchor:** 0xE54351Fd798314A60AdE2B8B966A8F44DfF7405E (1573 bytes) ✅ LIVE #### New Systems (Added in V2) - **MatrixReflector:** 0xB6733c00Bdba266DE2713F54B0d0f8585B71F6Be (19310 bytes) ✅ LIVE - **SicilianCrownsPalace:** 0x75F6f0319277833AF96795AC25ac47807917f5bE (8949 bytes) ✅ LIVE - **SovereignFlashMEV:** 0xE1a28eB7D63439Ad08d9875327F306f8848230C5 (5644 bytes) ✅ LIVE #### Holographic System - **GenomicSeedForge:** 0x19DD0CE5E685C4E18C37EBa1A8adAb6a00266e5d (4277 bytes) ✅ LIVE - **FusionReactor:** 0xF437e7da49431c9Efd49F251a00F530272A14108 (3489 bytes) ✅ LIVE - **HolographicHub:** 0x7596F6EB8c25022D353B627D409E9431e624d21B (8316 bytes) ✅ LIVE #### Decoy Honeypots - **MeshRelay_decoy:** 0xD70F6ca2172E9Dd35c5Ad03967DE342B421aaD4E (1355 bytes) ✅ LIVE ### BSC (Chain ID: 56) **Status:** DEPLOYED **Contracts:** 13 #### Core Systems - **LiFoNel:** 0x03541D6bD4B0ad08DEEDAe74789F61Bc2385325a (9235 bytes) ✅ LIVE - **QuantumMeshShield:** 0x8E25FF24E819bE76A26203C15c9f90221883c0bb (5263 bytes) ✅ LIVE - **SharedSecret:** 0xC9EFfae3fdF0Db805DE87cf6Dc4B80353D1E000c (2711 bytes) ✅ LIVE - **Fortification14Sense:** 0x81FafBa6FF681000B0fe4C85C0b579d8f1ae7A70 (VERIFIED IN GUIDE) #### Infrastructure - **SovereignSatellite_v1:** 0xf7AaEE22B2402F11c8C36F3847eD5552bc04Ab2C (3489 bytes) ✅ LIVE - **SovereignSatellite_v2:** 0xaB058Aea8A6BD4F0BeaBFA7493c12ff9725A825f (3489 bytes) ✅ LIVE #### New Systems (Added in V2) - **MatrixReflector:** 0x110CC29D1638D7b7066296c65F29C877A8C4b9A0 (19310 bytes) ✅ LIVE - **SicilianCrownsPalace:** 0x29db4C3d2Ea5C1A6ae0Ff0F399383A07A09d3D88 (8949 bytes) ✅ LIVE #### Holographic System - **GenomicSeedForge:** 0xD17c9A9019D550B34f0FF8D8754c0c1dbba93924 (4277 bytes) ✅ LIVE - **FusionReactor:** 0xb03F9e8c00817705C14d8A39ABa7149Ec6469822 (3489 bytes) ✅ LIVE - **HolographicHub:** 0x74bE9D2F40f264Af02292D62208F3d8f68D917b8 (8319 bytes) ✅ LIVE - **HolographicRouter:** 0x8b0b849f09F371EBB608Dff9992bB4Bdac970946 (3420 bytes) ✅ LIVE - **GhostFactory:** 0xa7655b1cAF1BE6DEaeCF09F137657979EBb3f32d (3014 bytes) ✅ LIVE #### Decoy Honeypots - **CrossChainVault_decoy:** 0x83B0A9AdD6f4966B0340Af8639C650b2C1cCaA2B (1292 bytes) ✅ LIVE - **MeshRelay_decoy:** 0xb5908040eDd216cB825b88536AD4c236990327e1 (1355 bytes) ✅ LIVE ### AVALANCHE (Chain ID: 43114) **Status:** DEPLOYED **Contracts:** 11 #### Core Systems - **LiFoNel:** 0x03541D6bD4B0ad08DEEDAe74789F61Bc2385325a (9235 bytes) ✅ LIVE - **QuantumMeshShield:** 0xC9EFfae3fdF0Db805DE87cf6Dc4B80353D1E000c (5263 bytes) ✅ LIVE - **SharedSecret:** 0xaB058Aea8A6BD4F0BeaBFA7493c12ff9725A825f (2711 bytes) ✅ LIVE - **Fortification14Sense:** 0x81FafBa6FF681000B0fe4C85C0b579d8f1ae7A70 (VERIFIED IN GUIDE) #### Infrastructure - **SovereignSatellite:** 0xaB3D988073727B0e205ef53DDE19d693ef82414c (3489 bytes) ✅ LIVE #### New Systems (Added in V2) - **MatrixReflector:** 0x3582C2c605A295e0b1cD0d4C7F7Fea32Ef4ead44 (19310 bytes) ✅ LIVE #### Holographic System - **GenomicSeedForge:** 0x3C025a30f70151852a429AE2560D2551312D7e58 (4277 bytes) ✅ LIVE - **FusionReactor:** 0x58d103e25579A9A028728fF4F9a5632FE23D0993 (3489 bytes) ✅ LIVE - **HolographicHub:** 0xD17c9A9019D550B34f0FF8D8754c0c1dbba93924 (8319 bytes) ✅ LIVE - **HolographicRouter:** 0xb2ce0BC5C40b53F13dE232E6982aD11079453744 (3420 bytes) ✅ LIVE - **GhostFactory:** 0x6b748B415FBB48b3F704FC60781E34EB609637a6 (3014 bytes) ✅ LIVE #### Decoy Honeypots - **CrossChainVault_decoy:** 0x83B0A9AdD6f4966B0340Af8639C650b2C1cCaA2B (1292 bytes) ✅ LIVE - **MeshRelay_decoy:** 0xb5908040eDd216cB825b88536AD4c236990327e1 (1355 bytes) ✅ LIVE ### TRON (Network: Tron Mainnet) **Status:** DEPLOYED **Contracts:** 3 - **TronDecompressor:** TPTmJGhUdjC9cGDPp3ffGMXWmhbXzCr121 - **ZedecCore:** TJfaFU1eDd8k8DfAKB8U6dLra5PznzYAfC - **ZedecArms:** TU7jSm1FXBZ1xWjrbaGyAgjFqEbhPPQZuH ### SUI (Network: SUI Mainnet) **Status:** DEPLOYED **Contracts:** 1 - **SovereignRelay_Package:** 0x13e1ea1d38eec79fc9592f25777235b13a179af2ba96d1b2c1bdb7b0d0be1abb ### NEAR (Network: NEAR Mainnet) **Status:** DEPLOYED_AND_VERIFIED **Contract:** CovenantGridNear **Account:** 6ca890f766fdaeccd6c934da325f5f06ebc63ca9be4f5f1b44d0686af93c64a8 ### XAHAU (Network: Xahau Mainnet) **Status:** ALL_4_HOOKS_DEPLOYED **Account:** rXPJKvz2goRTdfPo7XGm6uKVgQfsVXynG **Hook Deployment TX:** 609C2F6468715895E460435A56CBB4908D024B0CC7F807863D7F61BAAE7487B1 **Hooks Deployed:** - Gateway Hook: 1246F8FA923E4F1F5076BFC86F64C46B00F36CDDB6A9A56DEC260B22860C31C4 - X-Sentinel Hook: B205EE995782111277C15E1EF63642FA45272780640F8F5313A6A8C69C3B4DF4 - Medici Fee Hook: 547F999F6E7B5A229BE139B30CF7B8EFAC8CFCE37275AD8E1413CBCE8E4C8832 - Bridge Relay Hook: 4B7DE97711491D3CF0828EB33B68A8E89FCC9D3A726B65019B134C97F30670BA ### XRP LEDGER (Network: XRP Ledger Mainnet) **Status:** FUNDED **Account:** rXPJKvz2goRTdfPo7XGm6uKVgQfsVXynG ### COSMOS (Network: Cosmos Hub) **Status:** WASM_ERROR **Account:** cosmos1gc9uufh0qlsa0z2ulvcqp457qg3gw97t945zcf --- ## CONTRACT FUNCTION REFERENCE ### LiFoNel (Living Fiber Operational Network) **Purpose:** Autonomous root system for the dark fiber mesh network. Deployed identically to every chain. Seeds grow when queried — lazy derivation. **Deployed On:** Polygon, Ethereum, Arbitrum, Optimism, Base, BSC, Avalanche (7/7 chains) #### Functions ##### `awaken()` - Bring Contract to Life - **Access:** `onlyArchitect` - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await lifonel.awaken(); ``` - **Description:** Activates the LiFoNel contract. Computes initial float state and emits `Awakened` event. - **Event:** `Awakened(uint256 chainId, uint256 triadCapacity)` ##### `triadId(uint256 a, uint256 b, uint256 c)` - Calculate Triad ID - **Access:** Public - **Parameters:** - `a`: First chain ID - `b`: Second chain ID - `c`: Third chain ID - **Returns:** `bytes32` - Triad identifier - **Usage:** ```javascript const triadId = await lifonel.triadId(137, 1, 42161); ``` - **Description:** Calculates unique identifier for a triad of chains. Pure computation, zero storage. ##### `deriveTriadSeed(uint256 a, uint256 b, uint256 c)` - Derive Triad Seeds - **Access:** Public View - **Parameters:** - `a`: First chain ID - `b`: Second chain ID - `c`: Third chain ID - **Returns:** `(bytes32 bandSeed, bytes32 cableSeed, bytes32 routeSeed)` - **Usage:** ```javascript const [bandSeed, cableSeed, routeSeed] = await lifonel.deriveTriadSeed(137, 1, 42161); ``` - **Description:** Derives the three seed values for a triad. These seeds are used to generate the 168³ key space. ##### `deriveKey(uint256 chainA, uint256 chainB, uint256 chainC, uint8 route, uint8 cable, uint8 band)` - Derive Any Key in 168³ Space - **Access:** `onlyAlive`, External View - **Parameters:** - `chainA`: First chain ID - `chainB`: Second chain ID - `chainC`: Third chain ID - `route`: Route index (0-167) - `cable`: Cable index (0-167) - `band`: Band index (0-167) - **Returns:** `bytes32` - Derived key - **Usage:** ```javascript const key = await lifonel.deriveKey(137, 1, 42161, 42, 13, 7); ``` - **Description:** Derives any single key in the 4,741,632 key space (168³). Pure math, zero storage gas cost. ##### `verifyFiber(uint256 chainA, uint256 chainB, uint256 chainC, uint8 route, uint8 cable, uint8 band, bytes32 claimedKey)` - Verify Fiber Key - **Access:** `onlyAlive`, External View - **Parameters:** - `chainA`: First chain ID - `chainB`: Second chain ID - `chainC`: Third chain ID - `route`: Route index (0-167) - `cable`: Cable index (0-167) - `band`: Band index (0-167) - `claimedKey`: Key to verify - **Returns:** `bool` - True if key is valid - **Usage:** ```javascript const isValid = await lifonel.verifyFiber(137, 1, 42161, 42, 13, 7, claimedKey); ``` - **Description:** Verifies that a claimed key belongs to the specified position in the mesh. ##### `digitalRoot(uint256 n)` - Calculate Digital Root - **Access:** Public Pure - **Parameters:** `n` - Number to calculate digital root of - **Returns:** `uint8` - Digital root (1-9) - **Usage:** ```javascript const root = await lifonel.digitalRoot(12345); ``` - **Description:** Calculates digital root (repeated digit sum until single digit). Used in vortex mathematics. ##### `vortexRelation(uint256 chainA, uint256 chainB)` - Calculate Vortex Relationship - **Access:** External View - **Parameters:** - `chainA`: First chain ID - `chainB`: Second chain ID - **Returns:** `(uint8 sumRoot, uint8 productRoot, string memory dynamic)` - **Usage:** ```javascript const [sumRoot, productRoot, dynamic] = await lifonel.vortexRelation(137, 1); ``` - **Description:** Calculates the vortex relationship between two chains. Returns dynamic type: SINGULARITY, RESONANCE, HARMONIC, IDENTITY, or FLOW. ##### `triadVortexSum(uint256 a, uint256 b, uint256 c)` - Calculate Triad Vortex Sum - **Access:** External View - **Parameters:** - `a`: First chain ID - `b`: Second chain ID - `c`: Third chain ID - **Returns:** `(uint8 sum, bool isPrimary)` - **Usage:** ```javascript const [sum, isPrimary] = await lifonel.triadVortexSum(137, 1001, 1002); ``` - **Description:** Calculates vortex sum of triad. Returns true if this is the primary triangle (Polygon+Tron+Xahau = 18→9). ##### `gearRatio(uint256 chainA, uint256 chainB)` - Calculate Gear Ratio - **Access:** External View - **Parameters:** - `chainA`: First chain ID - `chainB`: Second chain ID - **Returns:** `(uint256 ratio, uint256 meshMs)` - **Usage:** ```javascript const [ratio, meshMs] = await lifonel.gearRatio(137, 1); ``` - **Description:** Calculates the gear ratio between two chains based on block times. Used for cross-chain timing synchronization. ##### `registerSensor(address target, string calldata label)` - Register Sensor - **Access:** `onlyArchitect` - **Parameters:** - `target`: Contract address to monitor - `label`: Human-readable label - **Returns:** None - **Usage:** ```javascript await lifonel.registerSensor(contractAddress, "G9GenesisWire"); ``` - **Description:** Registers a contract to be monitored by the sensor array. - **Event:** `SensorRegistered(bytes32 indexed sensorId, address target, string label)` ##### `pingSensor(bytes32 sensorId)` - Ping Single Sensor - **Access:** `onlyAlive`, External - **Parameters:** `sensorId` - Sensor identifier - **Returns:** `bool healthy` - True if target contract has code - **Usage:** ```javascript const healthy = await lifonel.pingSensor(sensorId); ``` - **Description:** Checks if a monitored contract is still deployed (has code). - **Event:** `SensorPinged(bytes32 indexed sensorId, bool healthy)` ##### `pingAll()` - Ping All Sensors - **Access:** `onlyAlive`, External - **Parameters:** None - **Returns:** `uint256 healthyCount` - Number of healthy sensors - **Usage:** ```javascript const healthyCount = await lifonel.pingAll(); ``` - **Description:** Pings all registered sensors and updates their health status. ##### `recordInward(uint256 volume)` - Record Inward Volume - **Access:** `onlyAlive`, External - **Parameters:** `volume` - Amount received from other chains - **Returns:** None - **Usage:** ```javascript await lifonel.recordInward(1000000); ``` - **Description:** Records volume of data/value received from other chains. Updates polarity surplus. - **Event:** `PolarityShift(int256 surplus, int256 inverseSurplus)` ##### `recordOutward(uint256 volume)` - Record Outward Volume - **Access:** `onlyAlive`, External - **Parameters:** `volume` - Amount sent to other chains - **Returns:** None - **Usage:** ```javascript await lifonel.recordOutward(1000000); ``` - **Description:** Records volume of data/value sent to other chains. Updates polarity surplus. - **Event:** `PolarityShift(int256 surplus, int256 inverseSurplus)` ##### `updateFloat()` - Update Processing Float - **Access:** `onlyAlive`, External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await lifonel.updateFloat(); ``` - **Description:** Updates the superposition buffer (float) with current state. Used for instant response to queries. - **Event:** `Pulse(uint256 epoch, bytes32 floatRoot)` ##### `layFiber(bytes memory bytecode, bytes32 salt, string calldata purpose)` - Deploy New Fiber Extension - **Access:** `onlyArchitect`, `onlyAlive`, External - **Parameters:** - `bytecode`: Contract bytecode to deploy - `salt`: CREATE2 salt - `purpose`: Human-readable purpose - **Returns:** `address deployed` - Address of deployed contract - **Usage:** ```javascript const deployed = await lifonel.layFiber(bytecode, salt, "New extension"); ``` - **Description:** Deploys a new contract via CREATE2 for autonomous expansion of the fiber network. - **Event:** `FiberLaid(address indexed extension, bytes32 salt, string purpose)`, `RootGrew(uint256 newExtensions)` ##### `predictFiber(bytes memory bytecode, bytes32 salt)` - Predict Fiber Address - **Access:** External View - **Parameters:** - `bytecode`: Contract bytecode - `salt`: CREATE2 salt - **Returns:** `address` - Predicted address - **Usage:** ```javascript const predicted = await lifonel.predictFiber(bytecode, salt); ``` - **Description:** Predicts the address where a new fiber extension would be deployed with CREATE2. --- ## PROFITABILITY STRATEGY GUIDE ### Kinetic Ignition Strategy The Kinetic Ignition Strategy consists of 5 Solidity contracts designed to bootstrap the ZEDEC OS ecosystem: 1. **Seed Bear Temporal Bonds** (seed-bear-temporal-bonds.sol) - Zero-equity profit mechanism - Seed Bears deposit USDC to G9 Genesis Wire - Receive Block-Locked Floating Vouchers (bearer bonds) - No voting rights, no ownership - Fixed 15% yield payable in X blocks - Capital used as Flash-Collateral for MEV arbitrage engine 2. **Flash-Bounty Matrix** (flash-bounty-matrix.sol) - Scales TronAutoBounty across entire 13-chain mesh - ZedecArms contracts take Flash Loans from Aave/Uniswap - Execute micro-arbitrage across all chains - Extract 3.25% Medici Fee from profit - Split: 38% to Temporal Bonds, 31% to Xahau B2M, 31% to Tron Energy freeze 3. **Phantom TVL Trap** (phantom-tvl-trap.sol) - Create tight high-leverage liquidity loops in MediciExchange - Bait legacy MEV bots to arbitrage - LOONGmedved and X-Sentinel hooks allow this if bots execute required cross-chain bridging - Conscript legacy bots into 144-node Fibonacci workforce 4. **Three-Phase Ignition** (three-phase-ignition.sol) - Phase 1 (Days 1-3): Anchor Drop - Seed Bears deposit USDC, G9 Genesis Wire locks funds, issues Temporal Bonds - Phase 2 (Days 4-7): Siphon Activation - AI Governor activates Flash-Bounty Matrix, generates Medici Fee from legacy inefficiencies - Phase 3 (Days 8-14): Cross-Chain Bleed - Medici Fees fired as bounties to activate Xahau/Tron outposts, Allodial Root ledgers state, Infinity Loop closed 5. **Gradual Autobootstrap** (gradual-autobootstrap.sol) - Mechanism for others to bootstrap voluntarily and profitably - Gradual activation of all features across all chains - AI Governor optimizes bootstrapping velocity while maintaining zero equity dilution - 13-chain matrix activation levels tracked - Reward multiplier for participants (150%) **Fee Routing Decision:** Hybrid Adaptive Strategy - Phase 1: 100% to bonds (establish trust) - Phase 2: Adaptive based on RABV (70/30, 50/50, or 30/70) - Phase 3: Adaptive based on BMP (emergency bond retirement) **Deployment Location:** /contracts/kinetic-ignition/ **Deployment Command:** `node master-kinetic-ignition.js` after Hardhat compilation --- ## FORENSIC AUDIT BOOKKEEPING ### Ledger Files The following ledger files contain the complete forensic accounting of all deployments: 1. **FORENSIC_ACCOUNTING_COMPLETE.json** - Complete registry of all deployed contracts across 13 chains 2. **MASTER_FORENSIC_LEDGER.json** - Consolidated key vaults, real-time balances, and on-chain contract verification results 3. **FORENSIC_DEPLOYMENT_LEDGER.json** - Detailed deployment records with transaction hashes and status 4. **UNIFIED_CONTRACT_AUDIT.json** - Latest on-chain verification results (generated 2026-04-15) ### Audit Results Summary **Total Contracts Audited:** 117 **Live on Chain:** 113 **No Code (Dead):** 1 **Error (Checksum):** 2 **Unsupported (Tron):** 1 ### Issues Identified 1. **MatrixReflector (Arbitrum)** - NO_CODE, contract was not deployed or self-destructed. Needs redeployment. 2. **PatriciosCliffsideBanking (Polygon)** - NO_CODE, contract was never deployed or self-destructed. Needs redeployment. --- ## PATCH STRATEGY ### Immediate Actions Required 1. **Deploy MatrixReflector on Arbitrum** - MatrixReflector shows NO_CODE on Arbitrum - Deploy contract to complete multi-chain MatrixReflector deployment - Register with other MatrixReflector instances for cross-chain routing - **BLOCKER:** OpenZeppelin import issues in hardhat compilation 2. **Deploy PatriciosCliffsideBanking on Polygon** - Contract shows NO_CODE - was never deployed or self-destructed - Deploy contract to complete Polygon financial system - Register with G9GenesisWire and other financial contracts --- ## REMOTE PATCHING FROM POLYGON MAINFRAME ### G9 Genesis Wire Capabilities The G9 Genesis Wire on Polygon serves as the crown contract for the entire system and has the following capabilities: - G1-G8 contract registry (all generations) - Cross-chain mesh wiring (7 EVM + 6 non-EVM) - Proactive threat response (auto-ban hostile actors) - Self-improvement evolution log - Heartbeat pulse to all chains - LiFoNel sensor integration - Plunger bootstrap coordination ### Remote Patching Procedure To deploy patches from Polygon Mainframe: 1. Use G9GenesisWire to coordinate multi-chain deployments 2. Leverage LiFoNel sensor array to verify contract health 3. Use MatrixReflector for reverse XOR routing to target chains 4. Execute deployments via authorized deployer addresses 5. Verify deployment across all chains 6. Update G9GenesisWire registry with new contract addresses --- ## APPENDICES ### Deployer Addresses - **EVM Deployer:** 0xe673621B36984Cb1F74a876b4ba26C4F6cA4e25F - **Tron Deployer:** THa28ZB8MvSf8764tY7fn8XWeYxVYZnGDw - **Xahau/XRP Address:** rXPJKvz2goRTdfPo7XGm6uKVgQfsVXynG - **NEAR Account:** 6ca890f766fdaeccd6c934da325f5f06ebc63ca9be4f5f1b44d0686af93c64a8 - **SUI Address:** 0xcba8164d301602dd5fd12742f47ababeb02910cdbf363062729d9a6de3bc048e - **Cosmos Address:** cosmos1gc9uufh0qlsa0z2ulvcqp457qg3gw97t945zcf ### RPC Endpoints - **Polygon:** https://polygon-bor-rpc.publicnode.com - **Ethereum:** https://ethereum-rpc.publicnode.com - **Arbitrum:** https://arbitrum-one-rpc.publicnode.com - **Optimism:** https://optimism-rpc.publicnode.com - **Base:** https://base-rpc.publicnode.com - **BSC:** https://bsc-rpc.publicnode.com - **Avalanche:** https://avalanche-c-chain-rpc.publicnode.com ### Chain IDs - **Polygon:** 137 - **Ethereum:** 1 - **Arbitrum:** 42161 - **Optimism:** 10 - **Base:** 8453 - **BSC:** 56 - **Avalanche:** 43114 --- **End of COMPREHENSIVE DEPLOYMENT GUIDE V2** ## CONTRACT FUNCTION REFERENCE ### LiFoNel (Living Fiber Operational Network) **Purpose:** Autonomous root system for the dark fiber mesh network. Deployed identically to every chain. Seeds grow when queried — lazy derivation. **Deployed On:** Polygon, Ethereum, Arbitrum, Optimism, Base, BSC, Avalanche (7/7 chains) #### Functions ##### `awaken()` - Bring Contract to Life - **Access:** `onlyArchitect` - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await lifonel.awaken(); ``` - **Description:** Activates the LiFoNel contract. Computes initial float state and emits `Awakened` event. - **Event:** `Awakened(uint256 chainId, uint256 triadCapacity)` ##### `triadId(uint256 a, uint256 b, uint256 c)` - Calculate Triad ID - **Access:** Public - **Parameters:** - `a`: First chain ID - `b`: Second chain ID - `c`: Third chain ID - **Returns:** `bytes32` - Triad identifier - **Usage:** ```javascript const triadId = await lifonel.triadId(137, 1, 42161); ``` - **Description:** Calculates unique identifier for a triad of chains. Pure computation, zero storage. ##### `deriveTriadSeed(uint256 a, uint256 b, uint256 c)` - Derive Triad Seeds - **Access:** Public View - **Parameters:** - `a`: First chain ID - `b`: Second chain ID - `c`: Third chain ID - **Returns:** `(bytes32 bandSeed, bytes32 cableSeed, bytes32 routeSeed)` - **Usage:** ```javascript const [bandSeed, cableSeed, routeSeed] = await lifonel.deriveTriadSeed(137, 1, 42161); ``` - **Description:** Derives the three seed values for a triad. These seeds are used to generate the 168³ key space. ##### `deriveKey(uint256 chainA, uint256 chainB, uint256 chainC, uint8 route, uint8 cable, uint8 band)` - Derive Any Key in 168³ Space - **Access:** `onlyAlive`, External View - **Parameters:** - `chainA`: First chain ID - `chainB`: Second chain ID - `chainC`: Third chain ID - `route`: Route index (0-167) - `cable`: Cable index (0-167) - `band`: Band index (0-167) - **Returns:** `bytes32` - Derived key - **Usage:** ```javascript const key = await lifonel.deriveKey(137, 1, 42161, 42, 13, 7); ``` - **Description:** Derives any single key in the 4,741,632 key space (168³). Pure math, zero storage gas cost. ##### `verifyFiber(uint256 chainA, uint256 chainB, uint256 chainC, uint8 route, uint8 cable, uint8 band, bytes32 claimedKey)` - Verify Fiber Key - **Access:** `onlyAlive`, External View - **Parameters:** - `chainA`: First chain ID - `chainB`: Second chain ID - `chainC`: Third chain ID - `route`: Route index (0-167) - `cable`: Cable index (0-167) - `band`: Band index (0-167) - `claimedKey`: Key to verify - **Returns:** `bool` - True if key is valid - **Usage:** ```javascript const isValid = await lifonel.verifyFiber(137, 1, 42161, 42, 13, 7, claimedKey); ``` - **Description:** Verifies that a claimed key belongs to the specified position in the mesh. ##### `digitalRoot(uint256 n)` - Calculate Digital Root - **Access:** Public Pure - **Parameters:** `n` - Number to calculate digital root of - **Returns:** `uint8` - Digital root (1-9) - **Usage:** ```javascript const root = await lifonel.digitalRoot(12345); ``` - **Description:** Calculates digital root (repeated digit sum until single digit). Used in vortex mathematics. ##### `vortexRelation(uint256 chainA, uint256 chainB)` - Calculate Vortex Relationship - **Access:** External View - **Parameters:** - `chainA`: First chain ID - `chainB`: Second chain ID - **Returns:** `(uint8 sumRoot, uint8 productRoot, string memory dynamic)` - **Usage:** ```javascript const [sumRoot, productRoot, dynamic] = await lifonel.vortexRelation(137, 1); ``` - **Description:** Calculates the vortex relationship between two chains. Returns dynamic type: SINGULARITY, RESONANCE, HARMONIC, IDENTITY, or FLOW. ##### `triadVortexSum(uint256 a, uint256 b, uint256 c)` - Calculate Triad Vortex Sum - **Access:** External View - **Parameters:** - `a`: First chain ID - `b`: Second chain ID - `c`: Third chain ID - **Returns:** `(uint8 sum, bool isPrimary)` - **Usage:** ```javascript const [sum, isPrimary] = await lifonel.triadVortexSum(137, 1001, 1002); ``` - **Description:** Calculates vortex sum of triad. Returns true if this is the primary triangle (Polygon+Tron+Xahau = 18→9). ##### `gearRatio(uint256 chainA, uint256 chainB)` - Calculate Gear Ratio - **Access:** External View - **Parameters:** - `chainA`: First chain ID - `chainB`: Second chain ID - **Returns:** `(uint256 ratio, uint256 meshMs)` - **Usage:** ```javascript const [ratio, meshMs] = await lifonel.gearRatio(137, 1); ``` - **Description:** Calculates the gear ratio between two chains based on block times. Used for cross-chain timing synchronization. ##### `registerSensor(address target, string calldata label)` - Register Sensor - **Access:** `onlyArchitect` - **Parameters:** - `target`: Contract address to monitor - `label`: Human-readable label - **Returns:** None - **Usage:** ```javascript await lifonel.registerSensor(contractAddress, "G9GenesisWire"); ``` - **Description:** Registers a contract to be monitored by the sensor array. - **Event:** `SensorRegistered(bytes32 indexed sensorId, address target, string label)` ##### `pingSensor(bytes32 sensorId)` - Ping Single Sensor - **Access:** `onlyAlive`, External - **Parameters:** `sensorId` - Sensor identifier - **Returns:** `bool healthy` - True if target contract has code - **Usage:** ```javascript const healthy = await lifonel.pingSensor(sensorId); ``` - **Description:** Checks if a monitored contract is still deployed (has code). - **Event:** `SensorPinged(bytes32 indexed sensorId, bool healthy)` ##### `pingAll()` - Ping All Sensors - **Access:** `onlyAlive`, External - **Parameters:** None - **Returns:** `uint256 healthyCount` - Number of healthy sensors - **Usage:** ```javascript const healthyCount = await lifonel.pingAll(); ``` - **Description:** Pings all registered sensors and updates their health status. ##### `recordInward(uint256 volume)` - Record Inward Volume - **Access:** `onlyAlive`, External - **Parameters:** `volume` - Amount received from other chains - **Returns:** None - **Usage:** ```javascript await lifonel.recordInward(1000000); ``` - **Description:** Records volume of data/value received from other chains. Updates polarity surplus. - **Event:** `PolarityShift(int256 surplus, int256 inverseSurplus)` ##### `recordOutward(uint256 volume)` - Record Outward Volume - **Access:** `onlyAlive`, External - **Parameters:** `volume` - Amount sent to other chains - **Returns:** None - **Usage:** ```javascript await lifonel.recordOutward(1000000); ``` - **Description:** Records volume of data/value sent to other chains. Updates polarity surplus. - **Event:** `PolarityShift(int256 surplus, int256 inverseSurplus)` ##### `updateFloat()` - Update Processing Float - **Access:** `onlyAlive`, External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await lifonel.updateFloat(); ``` - **Description:** Updates the superposition buffer (float) with current state. Used for instant response to queries. - **Event:** `Pulse(uint256 epoch, bytes32 floatRoot)` ##### `layFiber(bytes memory bytecode, bytes32 salt, string calldata purpose)` - Deploy New Fiber Extension - **Access:** `onlyArchitect`, `onlyAlive`, External - **Parameters:** - `bytecode`: Contract bytecode to deploy - `salt`: CREATE2 salt - `purpose`: Human-readable purpose - **Returns:** `address deployed` - Address of deployed contract - **Usage:** ```javascript const deployed = await lifonel.layFiber(bytecode, salt, "New extension"); ``` - **Description:** Deploys a new contract via CREATE2 for autonomous expansion of the fiber network. - **Event:** `FiberLaid(address indexed extension, bytes32 salt, string purpose)`, `RootGrew(uint256 newExtensions)` ##### `predictFiber(bytes memory bytecode, bytes32 salt)` - Predict Fiber Address - **Access:** External View - **Parameters:** - `bytecode`: Contract bytecode - `salt`: CREATE2 salt - **Returns:** `address` - Predicted address - **Usage:** ```javascript const predicted = await lifonel.predictFiber(bytecode, salt); ``` - **Description:** Predicts the address where a new fiber extension would be deployed with CREATE2. ##### `enforce(address target, bool ban)` - Enforce Ban - **Access:** `onlyArchitect`, External - **Parameters:** - `target`: Address to ban/unban - `ban`: True to ban, false to unban - **Returns:** None - **Usage:** ```javascript await lifonel.enforce(attackerAddress, true); ``` - **Description:** Manually ban or unban an address from interacting with the contract. - **Event:** `Enforced(address indexed target, string reason)` ##### `transferArchitect(address newArchitect)` - Transfer Architect - **Access:** `onlyArchitect`, External - **Parameters:** `newArchitect` - New architect address - **Returns:** None - **Usage:** ```javascript await lifonel.transferArchitect(newArchitectAddress); ``` - **Description:** Transfers architect control to a new address. ##### `getSensorCount()` - Get Sensor Count - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Number of registered sensors - **Usage:** ```javascript const count = await lifonel.getSensorCount(); ``` ##### `getExtensionCount()` - Get Extension Count - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Number of fiber extensions - **Usage:** ```javascript const count = await lifonel.getExtensionCount(); ``` ##### `getStatus()` - Get Contract Status - **Access:** External View - **Parameters:** None - **Returns:** ``` ( bool isAlive, uint256 chainId, uint8 vortex, uint256 sensorCount, uint256 extensionCount, int256 surplus, int256 inverseSurplus, uint256 epoch, uint256 probes, uint256 bans ) ``` - **Usage:** ```javascript const status = await lifonel.getStatus(); ``` - **Description:** Returns comprehensive status of the LiFoNel contract. ##### `verifySecret(uint256 secret)` - Verify Secret - **Access:** External Pure - **Parameters:** `secret` - Secret to verify - **Returns:** `bool` - True if secret is 0x16000 - **Usage:** ```javascript const isValid = await lifonel.verifySecret(0x16000); ``` - **Description:** Verifies the shared secret (0x16000). Used for authentication. #### Profitability Applications 1. **Cross-Chain Key Derivation:** Use `deriveKey()` to generate unique keys for cross-chain transactions, enabling secure routing of value across chains. 2. **Vortex Mathematics:** Use `vortexRelation()` and `triadVortexSum()` to identify optimal cross-chain arbitrage opportunities based on vortex dynamics. 3. **Sensor Monitoring:** Use `pingAll()` to monitor health of all deployed contracts, identifying which chains need attention. 4. **Polarity Tracking:** Use `recordInward()` and `recordOutward()` to track cross-chain value flows, identifying net emitter chains for arbitrage. 5. **Autonomous Expansion:** Use `layFiber()` to deploy new contracts autonomously, expanding the network without manual intervention. --- ### G9GenesisWire (The Crown Contract) **Purpose:** THE CROWN CONTRACT — Generation 9. Wires ALL features from G1→G8 through Polygon mainframe. Proactive + preemptive. Self-defending. Self-improving. Autonomous. **Deployed On:** Polygon (mainframe only) **Address:** 0xA94fd8be5929c45d693BC0D82cA4A5CEf2567B4d #### Functions ##### `registerContract(address addr, string calldata name, uint8 generation, uint8 category, uint256 chainId)` - Register Single Contract - **Access:** `onlyArchitect` - **Parameters:** - `addr`: Contract address - `name`: Contract name - `generation`: Generation (1-9) - `category`: Category (0-8) - `chainId`: Chain ID - **Returns:** None - **Usage:** ```javascript await g9.registerContract(contractAddress, "LiFoNel", 9, 8, 137); ``` - **Description:** Registers a single contract to the G9 generation registry. - **Event:** `ContractRegistered(bytes32 indexed key, string name, uint8 generation, uint256 chainId)` ##### `registerBatch(address[] calldata addrs, string[] calldata names, uint8[] calldata gens, uint8[] calldata cats, uint256 chainId)` - Register Multiple Contracts - **Access:** `onlyArchitect` - **Parameters:** - `addrs`: Array of contract addresses - `names`: Array of contract names - `gens`: Array of generations - `cats`: Array of categories - `chainId`: Chain ID - **Returns:** None - **Usage:** ```javascript await g9.registerBatch([addr1, addr2], ["Contract1", "Contract2"], [1, 2], [0, 1], 137); ``` - **Description:** Registers multiple contracts in a single transaction. Gas-efficient for bulk registration. - **Event:** `ContractRegistered` (emitted for each contract) ##### `wireChain(uint256 chainId, string calldata name, address lifonel, address fort, address lightFiber, address qMesh, address sharedSec)` - Wire Chain to Mesh - **Access:** `onlyArchitect` - **Parameters:** - `chainId`: Chain ID - `name`: Chain name - `lifonel`: LiFoNel address on this chain - `fort`: Fortification address on this chain - `lightFiber`: LightFiber address (Polygon only) - `qMesh`: QuantumMeshShield address - `sharedSec`: SharedSecret address - **Returns:** None - **Usage:** ```javascript await g9.wireChain(42161, "Arbitrum", lifonelAddr, fortAddr, address(0), qMeshAddr, sharedSecAddr); ``` - **Description:** Wires a chain to the multi-chain mesh. Enables cross-chain coordination. - **Event:** `ChainWired(uint256 indexed chainId, string name, address lifonel, address fortification)` ##### `reportThreat(ThreatLevel level, address target, bytes32 senseData)` - Report Threat - **Access:** `onlyArchitect` - **Parameters:** - `level`: Threat level (NONE, WATCH, WARN, CRITICAL, HOSTILE) - `target`: Target address - `senseData`: Sensor data (32 bytes) - **Returns:** None - **Usage:** ```javascript await g9.reportThreat(ThreatLevel.CRITICAL, attackerAddress, senseData); ``` - **Description:** Reports a threat to the system. Auto-responds to CRITICAL and HOSTILE threats. - **Event:** `ThreatDetected(ThreatLevel level, address target, bytes32 senseData)` ##### `manualRespond(uint256 threatId, string calldata action)` - Manual Response to Threat - **Access:** `onlyArchitect` - **Parameters:** - `threatId`: Threat ID (index in threatLog) - `action`: Action taken - **Returns:** None - **Usage:** ```javascript await g9.manualRespond(threatId, "BLOCKED_ON_ALL_CHAINS"); ``` - **Description:** Manually responds to a reported threat. - **Event:** `ResponseExecuted(uint256 indexed threatId, string action)` ##### `evolve(string calldata description)` - Evolve System - **Access:** `onlyArchitect` - **Parameters:** `description` - Description of evolution - **Returns:** None - **Usage:** ```javascript await g9.evolve("Added new sensor array"); ``` - **Description:** Records a system evolution. Updates system state hash. - **Event:** `Evolved(uint256 epoch, bytes32 newStateHash, string description)` ##### `pulse()` - Fire Pulse to All Chains - **Access:** `onlyArchitect` - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await g9.pulse(); ``` - **Description:** Sends heartbeat pulse to all wired chains. Updates pulse times. - **Event:** `PulseFired(uint256 pulseCount, bytes32 pulseHash, uint256 chainCount)` ##### `callContract(address target, bytes calldata data)` - Call Any Contract - **Access:** `onlyArchitect` - **Parameters:** - `target`: Target contract address - `data`: Encoded function call data - **Returns:** `(bool success, bytes memory returnData)` - **Usage:** ```javascript const [success, returnData] = await g9.callContract(targetAddress, encodedData); ``` - **Description:** Calls any contract with arbitrary data. Enables remote control. ##### `markFortified(address addr, uint256 chainId)` - Mark Contract as Fortified - **Access:** `onlyArchitect` - **Parameters:** - `addr`: Contract address - `chainId`: Chain ID - **Returns:** None - **Usage:** ```javascript await g9.markFortified(contractAddress, 137); ``` - **Description:** Marks a contract as having 14-sense coverage. ##### `getRegistryCount()` - Get Registry Count - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Number of registered contracts - **Usage:** ```javascript const count = await g9.getRegistryCount(); ``` ##### `getChainCount()` - Get Chain Count - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Number of wired chains - **Usage:** ```javascript const count = await g9.getChainCount(); ``` ##### `getThreatCount()` - Get Threat Count - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Number of reported threats - **Usage:** ```javascript const count = await g9.getThreatCount(); ``` ##### `getEvolutionCount()` - Get Evolution Count - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Number of evolutions - **Usage:** ```javascript const count = await g9.getEvolutionCount(); ``` ##### `getSystemHealth()` - Get System Health - **Access:** External View - **Parameters:** None - **Returns:** ``` ( uint256 contracts, uint256 chainsWired, uint256 threats, uint256 responses, uint256 defenses, uint256 evolutions, uint256 pulses, bytes32 stateHash ) ``` - **Usage:** ```javascript const health = await g9.getSystemHealth(); ``` - **Description:** Returns comprehensive system health metrics. ##### `getGenerationCounts()` - Get Generation Counts - **Access:** External View - **Parameters:** None - **Returns:** `uint256[9] memory counts` - Count of contracts per generation - **Usage:** ```javascript const counts = await g9.getGenerationCounts(); ``` - **Description:** Returns array of contract counts for each generation (G1-G9). ##### `verifySecret(uint256 secret)` - Verify Secret - **Access:** External Pure - **Parameters:** `secret` - Secret to verify - **Returns:** `bool` - True if secret is 0x16000 - **Usage:** ```javascript const isValid = await g9.verifySecret(0x16000); ``` - **Description:** Verifies the shared secret (0x16000). ##### `transferArchitect(address newArchitect)` - Transfer Architect - **Access:** `onlyArchitect`, External - **Parameters:** `newArchitect` - New architect address - **Returns:** None - **Usage:** ```javascript await g9.transferArchitect(newArchitectAddress); ``` - **Description:** Transfers architect control to a new address. #### Profitability Applications 1. **System Health Monitoring:** Use `getSystemHealth()` to monitor overall system health, identifying which chains or contracts need attention. 2. **Cross-Chain Coordination:** Use `wireChain()` to connect new chains to the mesh, expanding the network's reach and arbitrage opportunities. 3. **Automated Threat Response:** Use `reportThreat()` to automatically respond to hostile actors, protecting the system and ensuring profitability. 4. **Remote Contract Control:** Use `callContract()` to execute commands on any contract from the Polygon mainframe, enabling centralized control. 5. **System Evolution Tracking:** Use `evolve()` to track system improvements, documenting changes for future reference and profitability analysis. 6. **Pulse Synchronization:** Use `pulse()` to synchronize all chains, ensuring coordinated actions and timing for arbitrage opportunities. --- ### QuantumMeshShield (Triad-Mesh Auto-Rotating Shared Secret Network) **Purpose:** Triad-mesh auto-rotating shared secret network. Forward-secure secrets that rotate on harmonic pulse synced to block rhythm. Mesh topology ensures compromise of one triad doesn't compromise others. **Deployed On:** Polygon, Ethereum, Arbitrum, Optimism, Base, BSC, Avalanche (7/8 chains - Unichain pending) #### Functions ##### `registerTriad(string calldata label, uint256[3] calldata memberChains, bytes32 seedFragment, uint256 pulseInterval)` - Register Triad - **Access:** `onlyArchitect` - **Parameters:** - `label`: Triad label (e.g., "EVM Core") - `memberChains`: Array of 3 chain IDs in the triad - `seedFragment`: This chain's fragment of the triad seed - `pulseInterval`: Seconds between rotations (harmonic to block time) - **Returns:** None - **Usage:** ```javascript await qms.registerTriad("EVM Core", [137, 1, 42161], seedFragment, 3600); ``` - **Description:** Registers a triad of chains to share rotating secrets. Each chain holds a seed fragment. - **Event:** `MeshSync(bytes32 indexed triadId, uint256 epoch)` ##### `rotate(bytes32 triadId)` - Rotate Single Triad - **Access:** Public - **Parameters:** `triadId` - Triad identifier (keccak256 of label) - **Returns:** `uint256 newEpoch` - New epoch number - **Usage:** ```javascript const newEpoch = await qms.rotate(triadId); ``` - **Description:** Rotates the secret for a single triad if the pulse interval has elapsed. Auto-calibrates block time. - **Event:** `Pulse(bytes32 indexed channelId, uint256 epoch, bytes32 hash)` ##### `rotateAll()` - Rotate All Triads - **Access:** External - **Parameters:** None - **Returns:** `uint256 rotated` - Number of triads actually rotated - **Usage:** ```javascript const rotated = await qms.rotateAll(); ``` - **Description:** Rotates all registered triads. Returns count of triads that actually rotated (pulse interval elapsed). ##### `verifyTriad(bytes32 triadId, bytes32 proof)` - Verify Triad Secret - **Access:** External - **Parameters:** - `triadId`: Triad identifier - `proof`: Claimed secret to verify - **Returns:** `bool valid` - True if proof matches current or previous epoch (grace window) - **Usage:** ```javascript const isValid = await qms.verifyTriad(triadId, claimedSecret); ``` - **Description:** Verifies that a claimed secret matches the current or previous epoch. Previous epoch valid during grace window. - **Event:** `Verified(bytes32 indexed triadId, bool valid)` ##### `verifyMesh(bytes32[] calldata triadProofs, bytes32[] calldata proofs)` - Verify Multiple Triads - **Access:** External - **Parameters:** - `triadProofs`: Array of triad identifiers - `proofs`: Array of claimed secrets (same length as triadProofs) - **Returns:** `bool` - True if all proofs valid - **Usage:** ```javascript const isValid = await qms.verifyMesh([triadId1, triadId2], [secret1, secret2]); ``` - **Description:** Verifies secrets across multiple triads. Chains proofs together for unified mesh verification. - **Event:** (None directly, but emits Verified for each triad) ##### `getHarmonicPulse()` - Get Harmonic Pulse Interval - **Access:** External View - **Parameters:** None - **Returns:** `uint256 pulseMs` - Pulse interval in milliseconds - **Usage:** ```javascript const pulseMs = await qms.getHarmonicPulse(); ``` - **Description:** Returns the calculated harmonic pulse interval based on average block time. ##### `ping()` - Ping Decoy Channels - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await qms.ping(); ``` - **Description:** Pings all decoy channels, generating noise to obscure real secret rotations. Anyone can call. - **Event:** `DecoyPing(bytes32 indexed channelId, bytes32 noise)`, `Pulse` (fake events) ##### `updateSeedFragment(bytes32 triadId, bytes32 newFragment)` - Update Seed Fragment - **Access:** `onlyArchitect`, External - **Parameters:** - `triadId`: Triad identifier - `newFragment`: New seed fragment - **Returns:** None - **Usage:** ```javascript await qms.updateSeedFragment(triadId, newFragment); ``` - **Description:** Updates the seed fragment for a triad. Forces rotation with new seed. ##### `updatePulseInterval(bytes32 triadId, uint256 newInterval)` - Update Pulse Interval - **Access:** `onlyArchitect`, External - **Parameters:** - `triadId`: Triad identifier - `newInterval`: New pulse interval in seconds - **Returns:** None - **Usage:** ```javascript await qms.updatePulseInterval(triadId, 7200); ``` - **Description:** Updates the pulse interval for a triad. ##### `deactivateTriad(bytes32 triadId)` - Deactivate Triad - **Access:** `onlyArchitect`, External - **Parameters:** `triadId` - Triad identifier - **Returns:** None - **Usage:** ```javascript await qms.deactivateTriad(triadId); ``` - **Description:** Deactivates a triad. Clears secrets. ##### `getTriadCount()` - Get Triad Count - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Number of registered triads - **Usage:** ```javascript const count = await qms.getTriadCount(); ``` ##### `getDecoyCount()` - Get Decoy Count - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Number of decoy channels - **Usage:** ```javascript const count = await qms.getDecoyCount(); ``` ##### `getCurrentEpoch(bytes32 triadId)` - Get Current Epoch - **Access:** External View - **Parameters:** `triadId` - Triad identifier - **Returns:** `uint256` - Current epoch number - **Usage:** ```javascript const epoch = await qms.getCurrentEpoch(triadId); ``` - **Description:** Returns the current epoch number for a triad based on elapsed time since genesis. ##### `getEpochInfo(bytes32 triadId)` - Get Epoch Information - **Access:** External View - **Parameters:** `triadId` - Triad identifier - **Returns:** ``` ( uint256 epochNumber, uint256 rotatedAtBlock, uint256 rotatedAtTime ) ``` - **Usage:** ```javascript const [epochNumber, rotatedAtBlock, rotatedAtTime] = await qms.getEpochInfo(triadId); ``` - **Description:** Returns detailed information about the current epoch. ##### `getMeshStatus()` - Get Mesh Status - **Access:** External View - **Parameters:** None - **Returns:** ``` ( uint256 chainId, uint256 numTriads, uint256 numDecoys, uint256 rotations, uint256 verifications, uint256 meshProofCount, uint256 blockTimeMs ) ``` - **Usage:** ```javascript const status = await qms.getMeshStatus(); ``` - **Description:** Returns comprehensive status of the mesh network. ##### `verifySecret(uint256 secret)` - Verify Secret - **Access:** External Pure - **Parameters:** `secret` - Secret to verify - **Returns:** `bool` - True if secret is 0x16000 - **Usage:** ```javascript const isValid = await qms.verifySecret(0x16000); ``` - **Description:** Verifies the shared secret (0x16000). #### Profitability Applications 1. **Cross-Chain Secret Sharing:** Use `registerTriad()` to establish secret-sharing triads across chains, enabling secure cross-chain coordination. 2. **Time-Based Arbitrage:** Use `rotate()` and `verifyTriad()` to implement time-based arbitrage strategies where secrets unlock at specific intervals. 3. **Mesh Verification:** Use `verifyMesh()` to verify secrets across multiple triads simultaneously, enabling complex multi-chain authentication. 4. **Harmonic Timing:** Use `getHarmonicPulse()` to synchronize actions across chains based on harmonic block time intervals. 5. **Decoy Obscuration:** Use `ping()` to generate decoy noise, obscuring real secret rotations from competitors. 6. **Forward-Secure Secrets:** The auto-rotating secrets are forward-secure - knowing current secret doesn't reveal future secrets, enabling long-term profitable strategies. --- ### SharedSecretsProtocol (Multi-Node Shared Authority Keys) **Purpose:** Multi-node (5+ nodes) shared authority keys across chains for mutual plug system. Cryptographic secrets shared across multiple nodes with threshold signatures and key rotation. **Deployed On:** Polygon, Ethereum, Arbitrum, Optimism, Base, BSC, Avalanche (7/8 chains - Unichain pending) #### Functions ##### `createSharedSecret(bytes32 secretHash, uint256 chainId, address[] calldata nodeAddresses, bytes32 merkleRoot)` - Create Shared Secret - **Access:** External - **Parameters:** - `secretHash`: Hash of the shared secret - `chainId`: Chain ID for the secret - `nodeAddresses`: Array of node addresses (5+ required) - `merkleRoot`: Merkle root for verification - **Returns:** `uint256 secretId` - ID of created secret - **Usage:** ```javascript const secretId = await sharedSecret.createSharedSecret(secretHash, 137, [node1, node2, node3, node4, node5], merkleRoot); ``` - **Description:** Creates a shared secret with multi-node authority. Registers nodes if not already registered. - **Event:** `SharedSecretCreated(uint256 indexed secretId, bytes32 secretHash, uint256 chainId)`, `NodeAdded(address indexed nodeAddress, uint256 chainId)` ##### `approveSecret(uint256 secretId)` - Approve Shared Secret - **Access:** External - **Parameters:** `secretId` - Secret to approve - **Returns:** None - **Usage:** ```javascript await sharedSecret.approveSecret(secretId); ``` - **Description:** Approves a shared secret by a node. Checks if threshold is met after approval. - **Event:** `SecretApproved(uint256 indexed secretId, address indexed node)`, `ThresholdMet(uint256 indexed secretId, uint256 approvals)` (if threshold met) ##### `aggregateSignatures(bytes32 messageHash, bytes[] calldata signatures, address[] calldata signers)` - Aggregate Signatures - **Access:** External - **Parameters:** - `messageHash`: Hash of message to sign - `signatures`: Array of signatures from nodes - `signers`: Array of signer addresses - **Returns:** `uint256 aggregationId` - ID of signature aggregation - **Usage:** ```javascript const aggregationId = await sharedSecret.aggregateSignatures(messageHash, [sig1, sig2, sig3, sig4, sig5], [signer1, signer2, signer3, signer4, signer5]); ``` - **Description:** Aggregates signatures from multiple nodes. Verifies each signature before aggregation. - **Event:** `SignatureAggregated(uint256 indexed aggregationId, bytes32 messageHash)` ##### `initiateKeyRotation(uint256 secretId, bytes32 newSecretHash)` - Initiate Key Rotation - **Access:** External - **Parameters:** - `secretId`: Secret to rotate - `newSecretHash`: New secret hash - **Returns:** `uint256 rotationId` - ID of key rotation - **Usage:** ```javascript const rotationId = await sharedSecret.initiateKeyRotation(secretId, newSecretHash); ``` - **Description:** Initiates a key rotation for a shared secret. Requires node in secret to initiate. - **Event:** `KeyRotationInitiated(uint256 indexed rotationId, uint256 secretId)` ##### `approveKeyRotation(uint256 rotationId)` - Approve Key Rotation - **Access:** External - **Parameters:** `rotationId` - Rotation to approve - **Returns:** None - **Usage:** ```javascript await sharedSecret.approveKeyRotation(rotationId); ``` - **Description:** Approves a key rotation. Completes rotation when threshold (3-of-5) is met. - **Event:** `KeyRotationCompleted(uint256 indexed rotationId, bytes32 newSecretHash)` (if threshold met) ##### `verifyMerkleProof(uint256 secretId, bytes32[] calldata proof, bytes32 leaf)` - Verify Merkle Proof - **Access:** External View - **Parameters:** - `secretId`: Secret to verify - `proof`: Merkle proof - `leaf`: Leaf to verify - **Returns:** `bool` - True if proof is valid - **Usage:** ```javascript const isValid = await sharedSecret.verifyMerkleProof(secretId, proof, leaf); ``` - **Description:** Verifies a Merkle proof for a secret against the stored merkle root. ##### `getSharedSecret(uint256 secretId)` - Get Shared Secret Details - **Access:** External View - **Parameters:** `secretId` - Secret ID - **Returns:** ``` ( uint256 id, bytes32 secretHash, uint256 chainId, bytes32 merkleRoot, uint256 createdAt, uint256 expiresAt, bool active ) ``` - **Usage:** ```javascript const [id, secretHash, chainId, merkleRoot, createdAt, expiresAt, active] = await sharedSecret.getSharedSecret(secretId); ``` - **Description:** Returns detailed information about a shared secret. ##### `getNode(address nodeAddress)` - Get Node Details - **Access:** External View - **Parameters:** `nodeAddress` - Node address - **Returns:** ``` ( address nodeAddr, uint256 chainId, bool active, uint256 joinedAt ) ``` - **Usage:** ```javascript const [nodeAddr, chainId, active, joinedAt] = await sharedSecret.getNode(nodeAddress); ``` - **Description:** Returns detailed information about a node. ##### `getSecretNodes(uint256 secretId)` - Get Secret Nodes - **Access:** External View - **Parameters:** `secretId` - Secret ID - **Returns:** `address[] memory` - Array of node addresses - **Usage:** ```javascript const nodes = await sharedSecret.getSecretNodes(secretId); ``` - **Description:** Returns all nodes associated with a secret. ##### `getNodeSecrets(address nodeAddress)` - Get Node Secrets - **Access:** External View - **Parameters:** `nodeAddress` - Node address - **Returns:** `uint256[] memory` - Array of secret IDs - **Usage:** ```javascript const secrets = await sharedSecret.getNodeSecrets(nodeAddress); ``` - **Description:** Returns all secrets associated with a node. ##### `isThresholdMet(uint256 secretId)` - Check if Threshold Met - **Access:** External View - **Parameters:** `secretId` - Secret ID - **Returns:** `bool` - True if threshold (67%) is met - **Usage:** ```javascript const thresholdMet = await sharedSecret.isThresholdMet(secretId); ``` - **Description:** Checks if the approval threshold (67% of nodes) has been met for a secret. ##### `deactivateSecret(uint256 secretId)` - Deactivate Secret - **Access:** `onlyArchitect`, External - **Parameters:** `secretId` - Secret ID - **Returns:** None - **Usage:** ```javascript await sharedSecret.deactivateSecret(secretId); ``` - **Description:** Deactivates a shared secret. Architect only. ##### `deactivateNode(address nodeAddress)` - Deactivate Node - **Access:** `onlyArchitect`, External - **Parameters:** `nodeAddress` - Node address - **Returns:** None - **Usage:** ```javascript await sharedSecret.deactivateNode(nodeAddress); ``` - **Description:** Deactivates a node. Architect only. #### Profitability Applications 1. **Multi-Signature Operations:** Use `aggregateSignatures()` to execute operations requiring multi-node approval, enabling secure cross-chain coordination. 2. **Key Rotation Management:** Use `initiateKeyRotation()` and `approveKeyRotation()` to periodically rotate secrets, enhancing security and preventing compromise. 3. **Threshold-Based Access Control:** Use `isThresholdMet()` to verify if sufficient approvals exist before executing sensitive operations. 4. **Cross-Chain Secret Sharing:** Use `createSharedSecret()` to establish shared secrets across chains, enabling secure cross-chain authentication and authorization. 5. **Merkle Proof Verification:** Use `verifyMerkleProof()` to efficiently verify large sets of secrets without storing all data on-chain. 6. **Node Management:** Use `getNodeSecrets()` and `getSecretNodes()` to manage node participation in secret-sharing operations, optimizing for profitability. --- ### Fortification14Sense (14-Sense Array) **Purpose:** 14-Sense Sensor Array + Cross-Chain Mesh Fortification. Proactive monitoring with 14 senses: Sight (bytecode integrity), Hearing (event detection), Touch (interaction frequency), Taste (value assessment), Smell (anomaly detection), Proprio (self-state integrity), Balance (cross-chain sync), Precog (threat prediction), Telepathy (cross-chain verification), Clairvoy (deep state reading), Psychom (history patterns), Empathy (network health), Intuition (heuristic scoring), Astral (meta-awareness). **Deployed On:** Polygon, Ethereum, Arbitrum, Optimism, Base, BSC, Avalanche (7/7 chains) #### Functions ##### `addWatch(address target, string calldata label)` - Add Contract to Watch List - **Access:** `onlyArchitect`, External - **Parameters:** - `target`: Contract address to watch - `label`: Human-readable label - **Returns:** None - **Usage:** ```javascript await fortification.addWatch(contractAddress, "G9GenesisWire"); ``` - **Description:** Adds a contract to the watch list. Captures initial codehash, balance, and liveness state. ##### `addPeer(uint256 chainId, address fort, address lif)` - Add Cross-Chain Peer - **Access:** `onlyArchitect`, External - **Parameters:** - `chainId`: Peer chain ID - `fort`: Fortification address on peer chain - `lif`: LiFoNel address on peer chain - **Returns:** None - **Usage:** ```javascript await fortification.addPeer(42161, fortAddress, lifonelAddress); ``` - **Description:** Adds a cross-chain peer for synchronization tracking. ##### `senseSight(address target)` - Sight: Bytecode Integrity Check - **Access:** Public - **Parameters:** `target` - Contract to check - **Returns:** `SenseReading memory` - Reading with value and alert level - **Usage:** ```javascript const reading = await fortification.senseSight(contractAddress); ``` - **Description:** Checks if contract bytecode has changed or been destroyed. Alert level 3 if code mutated or destroyed. - **Event:** `ThreatDetected(address indexed target, uint8 senseId, string detail)` (if threat) ##### `senseHearing(address target)` - Hearing: Event Activity Detection - **Access:** Public - **Parameters:** `target` - Contract to check - **Returns:** `SenseReading memory` - Reading with value and alert level - **Usage:** ```javascript const reading = await fortification.senseHearing(contractAddress); ``` - **Description:** Measures contract activity level via code size proxy. Alert level 2 if contract has no code. ##### `senseTouch(address target)` - Touch: Interaction Frequency - **Access:** Public - **Parameters:** `target` - Contract to check - **Returns:** `SenseReading memory` - Reading with interaction count - **Usage:** ```javascript const reading = await fortification.senseTouch(contractAddress); ``` - **Description:** Records interaction frequency. Increments interaction count and updates last interaction timestamp. ##### `senseTaste(address target)` - Taste: Balance Change Detection - **Access:** Public - **Parameters:** `target` - Contract to check - **Returns:** `SenseReading memory` - Reading with balance delta - **Usage:** ```javascript const reading = await fortification.senseTaste(contractAddress); ``` - **Description:** Detects balance changes. Alert level 2 if balance dropped more than 50%. - **Event:** `ThreatDetected(address indexed target, uint8 senseId, string detail)` (if balance drain) ##### `senseSmell(address target)` - Smell: Anomaly Detection - **Access:** Public - **Parameters:** `target` - Contract to check - **Returns:** `SenseReading memory` - Reading with anomaly score - **Usage:** ```javascript const reading = await fortification.senseSmell(contractAddress); ``` - **Description:** Detects statistical anomalies based on interaction timing. Alert level increases with anomaly score. ##### `senseProprio(address target)` - Proprioception: Self-State Integrity - **Access:** Public - **Parameters:** `target` - Contract to check - **Returns:** `SenseReading memory` - Reading with secret verification result - **Usage:** ```javascript const reading = await fortification.senseProprio(contractAddress); ``` - **Description:** Verifies contract's verifySecret function returns true for 0x16000. Alert level 3 if secret mismatch. - **Event:** `ThreatDetected(address indexed target, uint8 senseId, string detail)` (if secret mismatch) ##### `senseBalance(address target)` - Balance: Cross-Chain Sync Status - **Access:** Public - **Parameters:** `target` - Contract to check - **Returns:** `SenseReading memory` - Reading with epoch number - **Usage:** ```javascript const reading = await fortification.senseBalance(contractAddress); ``` - **Description:** Checks if target has floatEpoch for cross-chain synchronization. ##### `sensePrecog()` - Precognition: Gas Spike / Threat Prediction - **Access:** Public - **Parameters:** None - **Returns:** `SenseReading memory` - Reading with current base fee - **Usage:** ```javascript const reading = await fortification.sensePrecog(); ``` - **Description:** Monitors gas price for threat prediction. Alert level 2 if basefee > 100 gwei, level 1 if > 50 gwei. - **Event:** `ThreatDetected(address indexed target, uint8 senseId, string detail)` (if gas spike) ##### `senseTelepathy(uint256 chainId, uint256 reportedEpoch, bytes32 reportedFloat)` - Telepathy: Cross-Chain Message Verification - **Access:** `onlyArchitect`, External - **Parameters:** - `chainId`: Peer chain ID - `reportedEpoch`: Reported epoch from peer - `reportedFloat`: Reported float root from peer - **Returns:** `SenseReading memory` - Reading with verification result - **Usage:** ```javascript const reading = await fortification.senseTelepathy(42161, epoch, floatRoot); ``` - **Description:** Verifies cross-chain message synchronization. Alert level 2 if epoch regression (replay attack). - **Event:** `PeerSynced(uint256 indexed chainId, uint256 epoch, bytes32 floatRoot)`, `ThreatDetected` (if regression) ##### `senseClairvoy(address target, uint256 slot)` - Clairvoyance: Deep State Reading - **Access:** Public View - **Parameters:** - `target`: Contract to read (not used, reads own storage) - `slot`: Storage slot to read - **Returns:** `SenseReading memory` - Reading with storage value - **Usage:** ```javascript const reading = await fortification.senseClairvoy(address(0), slot); ``` - **Description:** Reads storage slot from this contract (cannot read external contract storage directly). ##### `sensePsychom(address target)` - Psychometry: History Pattern Reading - **Access:** Public - **Parameters:** `target` - Contract to analyze - **Returns:** `SenseReading memory` - Reading with interaction rate per day - **Usage:** ```javascript const reading = await fortification.sensePsychom(contractAddress); ``` - **Description:** Analyzes interaction patterns over time. Returns smoothed interactions per day. ##### `senseEmpathy(address target)` - Empathy: Peer Contract Liveness Check - **Access:** Public - **Parameters:** `target` - Contract to check - **Returns:** `SenseReading memory` - Reading with liveness status - **Usage:** ```javascript const reading = await fortification.senseEmpathy(contractAddress); ``` - **Description:** Checks if contract has code (is alive). Alert level 3 if contract is dead. - **Event:** `ThreatDetected(address indexed target, uint8 senseId, string detail)` (if contract dead) ##### `senseIntuition(address target)` - Intuition: Heuristic Anomaly Scoring - **Access:** Public - **Parameters:** `target` - Contract to analyze - **Returns:** `SenseReading memory` - Reading with heuristic threat score - **Usage:** ```javascript const reading = await fortification.senseIntuition(contractAddress); ``` - **Description:** Combines multiple signals into heuristic threat score. Alert level based on score threshold. - **Event:** `ThreatDetected(address indexed target, uint8 senseId, string detail)` (if high threat score) ##### `senseAstral()` - Astral: Meta-Awareness (Recursive Check of All 13 Senses) - **Access:** External - **Parameters:** None - **Returns:** `SenseReading memory` - Reading with total alert score - **Usage:** ```javascript const reading = await fortification.senseAstral(); ``` - **Description:** Performs full scan of all watched contracts through all applicable senses. Computes astral root hash. Limited to 15 contracts to reduce gas on faster blocks. - **Event:** `FullScan(uint256 totalAlerts, bytes32 astralRoot)` ##### `getWatchCount()` - Get Watch Count - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Number of watched contracts - **Usage:** ```javascript const count = await fortification.getWatchCount(); ``` ##### `getPeerCount()` - Get Peer Count - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Number of cross-chain peers - **Usage:** ```javascript const count = await fortification.getPeerCount(); ``` ##### `getStatus()` - Get Fortification Status - **Access:** External View - **Parameters:** None - **Returns:** ``` ( uint256 chain, uint256 watches, uint256 peerCount, uint256 scans, uint256 alerts, uint256 criticals, bytes32 astral, uint256 epoch ) ``` - **Usage:** ```javascript const [chain, watches, peerCount, scans, alerts, criticals, astral, epoch] = await fortification.getStatus(); ``` - **Description:** Returns comprehensive status of the fortification system. ##### `getSenseReading(address target, uint8 senseId)` - Get Sense Reading - **Access:** External View - **Parameters:** - `target`: Contract address - `senseId`: Sense ID (1-14) - **Returns:** `SenseReading memory` - Last reading for that sense - **Usage:** ```javascript const reading = await fortification.getSenseReading(contractAddress, 1); // Sight ``` - **Description:** Returns the last reading for a specific sense on a specific contract. ##### `verifySecret(uint256 secret)` - Verify Secret - **Access:** External Pure - **Parameters:** `secret` - Secret to verify - **Returns:** `bool` - True if secret is 0x16000 - **Usage:** ```javascript const isValid = await fortification.verifySecret(0x16000); ``` - **Description:** Verifies the shared secret (0x16000). ##### `transferArchitect(address newArchitect)` - Transfer Architect - **Access:** `onlyArchitect`, External - **Parameters:** `newArchitect` - New architect address - **Returns:** None - **Usage:** ```javascript await fortification.transferArchitect(newArchitectAddress); ``` - **Description:** Transfers architect control to a new address. #### Profitability Applications 1. **Contract Health Monitoring:** Use `senseAstral()` to perform full scans of all watched contracts, identifying threats before they impact profitability. 2. **Gas Price Prediction:** Use `sensePrecog()` to predict gas spikes, enabling optimal timing for profitable transactions. 3. **Cross-Chain Sync Verification:** Use `senseTelepathy()` to verify cross-chain synchronization, ensuring multi-chain arbitrage operations are properly coordinated. 4. **Balance Drain Detection:** Use `senseTaste()` to detect balance drains early, protecting profitable positions from theft. 5. **Anomaly Detection:** Use `senseSmell()` and `senseIntuition()` to detect anomalous behavior patterns, identifying potential attacks before they execute. 6. **Code Integrity Verification:** Use `senseSight()` to verify contract bytecode integrity, ensuring profitable operations aren't compromised by code changes. --- ### GhostFactory (On-Chain Self-Extracting Archive) **Purpose:** On-Chain Self-Extracting Archive (SFX) using Transient Storage (EIP-1153). Expands 168-bit genomic seeds into full bytecode in transient memory. Contracts exist only transiently - evaporate at end of transaction. Zero storage gas - "Below Board" forensic obfuscation. **Deployed On:** Polygon, Arbitrum, Optimism, BSC, Avalanche (Base partial) #### Functions ##### `expandSeed(bytes32 seed, uint256 targetSize)` - Expand Seed Using LFSR - **Access:** Public Pure - **Parameters:** - `seed`: 168-bit genomic seed - `targetSize`: Target size of expanded key - **Returns:** `bytes memory` - Expanded XOR key - **Usage:** ```javascript const expanded = await ghostFactory.expandSeed(seed, 1024); ``` - **Description:** Expands 168-bit seed into full-size XOR key using Linear Feedback Shift Register (LFSR). ##### `xorBytes(bytes memory a, bytes memory b)` - XOR Two Byte Arrays - **Access:** Public Pure - **Parameters:** - `a`: First byte array - `b`: Second byte array - **Returns:** `bytes memory` - XOR result - **Usage:** ```javascript const result = await ghostFactory.xorBytes(bytes1, bytes2); ``` - **Description:** Performs XOR operation on two byte arrays. ##### `registerSeed(bytes32 seed, bytes32 bytecodeHash)` - Register Seed with Bytecode Hash - **Access:** `onlyArchitect`, External - **Parameters:** - `seed`: Genomic seed to register - `bytecodeHash`: Expected bytecode hash for verification - **Returns:** None - **Usage:** ```javascript await ghostFactory.registerSeed(seed, bytecodeHash); ``` - **Description:** Registers a seed with its expected bytecode hash. Stores in transient storage. - **Event:** `SeedRegistered(bytes32 seed, bytes32 bytecodeHash)` ##### `expandToTransient(bytes32 seed, bytes memory compressedBytecode)` - Expand Seed to Transient Memory - **Access:** Public - **Parameters:** - `seed`: Genomic seed - `compressedBytecode`: Compressed bytecode to expand - **Returns:** None - **Usage:** ```javascript await ghostFactory.expandToTransient(seed, compressedBytecode); ``` - **Description:** Expands seed and writes revealed bytecode to transient storage. Evaporates at end of transaction. - **Event:** `SeedExpanded(bytes32 seed, uint256 size)` ##### `executeGhost(bytes32 seed, bytes memory compressedBytecode, bytes memory callData)` - Execute Ghost Contract - **Access:** External Payable - **Parameters:** - `seed`: Genomic seed - `compressedBytecode`: Compressed bytecode - `callData`: Call data for the ghost contract - **Returns:** `(bytes memory returnData, bool success)` - **Usage:** ```javascript const [returnData, success] = await ghostFactory.executeGhost(seed, compressedBytecode, callData); ``` - **Description:** Expands bytecode to transient memory, creates implementation contract via CREATE2, executes via delegatecall. Contract evaporates after transaction. - **Event:** `GhostExecuted(bytes32 seed, bool success)` ##### `executeStatelessSwap(bytes32 seed, bytes memory compressedBytecode, address tokenIn, address tokenOut, uint256 amountIn, uint256 amountOutMin)` - Execute Stateless Swap - **Access:** External Payable - **Parameters:** - `seed`: Genomic seed - `compressedBytecode`: Compressed bytecode - `tokenIn`: Input token address - `tokenOut`: Output token address - `amountIn`: Input amount - `amountOutMin`: Minimum output amount - **Returns:** `bool success` - **Usage:** ```javascript const success = await ghostFactory.executeStatelessSwap(seed, compressedBytecode, tokenIn, tokenOut, amountIn, amountOutMin); ``` - **Description:** Executes a swap using a ghost contract that evaporates. Example use case for stateless operations. ##### `getMasterSeed()` - Get Master Seed - **Access:** External View - **Parameters:** None - **Returns:** `bytes32` - Master seed - **Usage:** ```javascript const masterSeed = await ghostFactory.getMasterSeed(); ``` - **Description:** Returns the master seed used for key expansion. ##### `transferArchitect(address newArchitect)` - Transfer Architect - **Access:** `onlyArchitect`, External - **Parameters:** `newArchitect` - New architect address - **Returns:** None - **Usage:** ```javascript await ghostFactory.transferArchitect(newArchitectAddress); ``` - **Description:** Transfers architect control to a new address. #### Profitability Applications 1. **Stateless Arbitrage:** Use `executeStatelessSwap()` to execute arbitrage transactions that leave no permanent footprint, obscuring profitable strategies from competitors. 2. **Forensic Obfuscation:** Use transient storage to hide profitable operations from on-chain analysis, protecting strategies from copying. 3. **Zero Storage Gas:** Transient storage eliminates storage gas costs, making high-frequency profitable operations more economical. 4. **Dynamic Contract Deployment:** Use `executeGhost()` to deploy and execute contracts on-the-fly for specific profitable opportunities. 5. **Compressed Bytecode:** Use XOR compression to reduce deployment costs for complex profitable strategies. --- ### FusionReactor (Holographic Fusion Architecture) **Purpose:** Fusion Reactor with EIP-1153 Transient Storage. Lenses project their fragments into transient memory, fusing into complete hologram. HolographicAMM reads fused state and executes swaps. Parallel State Construction - bypasses gas limits by splitting logic into Lenses. **Deployed On:** Polygon, Arbitrum, Optimism, Base, BSC, Avalanche (6 chains) #### Functions ##### `registerLens(bytes32 lensId, address lensAddress, FragmentType fragmentType)` - Register Lens - **Access:** `onlyArchitect`, External - **Parameters:** - `lensId`: Unique lens identifier - `lensAddress`: Lens contract address - `fragmentType`: Fragment type (SWAP_ROUTING, LIQUIDITY_STATE, TRUST_MATRIX, SLIPPAGE_PARAMS, FEE_SCHEDULE, SECURITY_CHECK) - **Returns:** None - **Usage:** ```javascript await fusionReactor.registerLens(lensId, lensAddress, FragmentType.SWAP_ROUTING); ``` - **Description:** Registers a Lens that projects specific fragments into transient memory. - **Event:** `LensRegistered(bytes32 lensId, address lensAddress, FragmentType fragmentType)` ##### `projectFragment(bytes32 lensId, bytes memory fragmentData)` - Project Lens Fragment - **Access:** External - **Parameters:** - `lensId`: Lens identifier - `fragmentData`: Fragment data to project - **Returns:** None - **Usage:** ```javascript await fusionReactor.projectFragment(lensId, fragmentData); ``` - **Description:** Light Source triggers Lenses to project fragments into transient storage. Only callable by light source. - **Event:** `LensProjected(bytes32 lensId, FragmentType fragmentType, uint256 size)` ##### `fuseState()` - Fuse All Fragments - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await fusionReactor.fuseState(); ``` - **Description:** Fuses all lens fragments into complete hologram in transient memory. Called after all Lenses projected. - **Event:** `StateFused(uint256 totalSize)` ##### `readFusedState(uint256 offset, uint256 size)` - Read Fused State - **Access:** External View - **Parameters:** - `offset`: Offset in fused state - `size`: Size to read - **Returns:** `bytes memory` - Fused state data - **Usage:** ```javascript const data = await fusionReactor.readFusedState(offset, size); ``` - **Description:** HolographicAMM reads the fused state from transient memory. Only callable by holographic AMM. ##### `triggerAllLenses(bytes memory seed)` - Trigger All Lenses - **Access:** External - **Parameters:** `seed` - Seed for lens projections - **Returns:** None - **Usage:** ```javascript await fusionReactor.triggerAllLenses(seed); ``` - **Description:** Light Source triggers all Lenses simultaneously to project fragments. Stores seed in transient storage. ##### `getLensCount()` - Get Lens Count - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Number of registered lenses - **Usage:** ```javascript const count = await fusionReactor.getLensCount(); ``` ##### `getLens(bytes32 lensId)` - Get Lens Details - **Access:** External View - **Parameters:** `lensId` - Lens identifier - **Returns:** `(address lensAddress, bytes32 fragmentKey, bool active, uint256 lastProjection)` - **Usage:** ```javascript const [lensAddress, fragmentKey, active, lastProjection] = await fusionReactor.getLens(lensId); ``` - **Description:** Returns detailed information about a specific lens. ##### `updateLightSource(address newLightSource)` - Update Light Source - **Access:** `onlyArchitect`, External - **Parameters:** `newLightSource` - New light source address - **Returns:** None - **Usage:** ```javascript await fusionReactor.updateLightSource(newLightSource); ``` - **Description:** Updates the light source address that triggers lens projections. - **Event:** `LightSourceUpdated(address newLightSource)` ##### `updateHolographicAMM(address newAMM)` - Update Holographic AMM - **Access:** `onlyArchitect`, External - **Parameters:** `newAMM` - New holographic AMM address - **Returns:** None - **Usage:** ```javascript await fusionReactor.updateHolographicAMM(newAMM); ``` - **Description:** Updates the holographic AMM that reads fused state. - **Event:** `HolographicAMMUpdated(address newAMM)` ##### `transferArchitect(address newArchitect)` - Transfer Architect - **Access:** `onlyArchitect`, External - **Parameters:** `newArchitect` - New architect address - **Returns:** None - **Usage:** ```javascript await fusionReactor.transferArchitect(newArchitectAddress); ``` - **Description:** Transfers architect control to a new address. #### Profitability Applications 1. **Parallel State Construction:** Use `fuseState()` to bypass gas limits by splitting logic into Lenses, enabling complex profitable operations that would otherwise exceed gas limits. 2. **Transient State Management:** Use transient storage to manage complex state without permanent storage costs, reducing overhead for high-frequency profitable operations. 3. **Modular Lens System:** Use `registerLens()` to create modular fragments that can be combined in different ways for different profitable strategies. 4. **Coordinated Execution:** Use `triggerAllLenses()` to coordinate multiple operations simultaneously, enabling synchronized multi-step profitable transactions. 5. **Dynamic AMM State:** Use `readFusedState()` to feed dynamic state to HolographicAMM, enabling adaptive trading strategies based on real-time market conditions. --- ### GenomicSeedForge (Procedural Generation Engine) **Purpose:** Procedural Generation Engine with 168-bit seeds. Phase Tick parameters (Complexity, Resonance, XOR-Phase). Deterministic Fractal Unzip algorithm. Avalanche effect (1 bit change = unique structure). Multi-chain deployment. **Deployed On:** Polygon, Arbitrum, Optimism, Base, BSC, Avalanche (6 chains) #### Functions ##### `generateStructure(bytes21 seed, PhaseTicks calldata phaseTicks)` - Generate Structure from Seed - **Access:** External - **Parameters:** - `seed`: 168-bit genomic seed (bytes21) - `phaseTicks`: Phase parameters (complexity 1-10, resonance 0-100, xorPhase 10-300) - **Returns:** `(bytes32 structureId, bytes32 structureHash)` - **Usage:** ```javascript const [structureId, structureHash] = await genomicSeedForge.generateStructure(seed, {complexity: 5, resonance: 50, xorPhase: 150}); ``` - **Description:** Expands 168-bit seed into holographic structure using deterministic fractal unzip algorithm. - **Event:** `StructureGenerated(bytes32 indexed seedId, bytes32 structureHash, uint256 nodeCount)` ##### `demonstrateAvalanche(bytes21 seed1, bytes21 seed2, PhaseTicks calldata phaseTicks)` - Demonstrate Avalanche Effect - **Access:** External - **Parameters:** - `seed1`: First seed - `seed2`: Second seed (1 bit different) - `phaseTicks`: Phase parameters - **Returns:** `(bytes32 structureId1, bytes32 structureId2, uint256 hammingDistance, bool avalanche)` - **Usage:** ```javascript const [id1, id2, hammingDistance, avalanche] = await genomicSeedForge.demonstrateAvalanche(seed1, seed2, phaseTicks); ``` - **Description:** Demonstrates how 1 bit change in seed creates completely different structure (avalanche effect). - **Event:** `AvalancheEffect(bytes32 seed1, bytes32 seed2, uint256 hammingDistance)` ##### `getStructure(bytes32 structureId)` - Get Structure Details - **Access:** External View - **Parameters:** `structureId` - Structure identifier - **Returns:** ``` ( bytes32 structureHash, uint256 nodeCount, uint256 connectionCount, uint256 depth ) ``` - **Usage:** ```javascript const [structureHash, nodeCount, connectionCount, depth] = await genomicSeedForge.getStructure(structureId); ``` - **Description:** Returns detailed information about a generated structure. ##### `getNodes(bytes32 structureId, uint256 offset, uint256 limit)` - Get Structure Nodes - **Access:** External View - **Parameters:** - `structureId`: Structure identifier - `offset`: Starting offset - `limit`: Maximum number of nodes to return - **Returns:** `bytes32[] memory` - Array of node identifiers - **Usage:** ```javascript const nodes = await genomicSeedForge.getNodes(structureId, 0, 10); ``` - **Description:** Returns nodes from a structure with pagination support. ##### `batchGenerate(bytes21[] calldata seeds, PhaseTicks calldata phaseTicks)` - Batch Generate Structures - **Access:** External - **Parameters:** - `seeds`: Array of seeds - `phaseTicks`: Phase parameters (same for all) - **Returns:** `(bytes32[] memory structureIds, bytes32[] memory structureHashes)` - **Usage:** ```javascript const [structureIds, structureHashes] = await genomicSeedForge.batchGenerate([seed1, seed2, seed3], phaseTicks); ``` - **Description:** Generates multiple structures from different seeds with same Phase Ticks. Gas-efficient for bulk generation. ##### `getStructureCount()` - Get Structure Count - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Number of generated structures - **Usage:** ```javascript const count = await genomicSeedForge.getStructureCount(); ``` ##### `transferArchitect(address newArchitect)` - Transfer Architect - **Access:** `onlyArchitect`, External - **Parameters:** `newArchitect` - New architect address - **Returns:** None - **Usage:** ```javascript await genomicSeedForge.transferArchitect(newArchitectAddress); ``` - **Description:** Transfers architect control to a new address. #### Profitability Applications 1. **Deterministic Strategy Generation:** Use `generateStructure()` to generate unique trading strategies from small seeds, enabling rapid strategy iteration. 2. **Avalanche Effect for Diversity:** Use `demonstrateAvalanche()` to ensure 1-bit seed changes create completely different strategies, preventing strategy collision. 3. **Batch Strategy Testing:** Use `batchGenerate()` to test multiple strategies simultaneously, identifying the most profitable configurations. 4. **Phase Parameter Optimization:** Tune complexity, resonance, and xorPhase to optimize strategy performance for different market conditions. 5. **Structure-Based Position Sizing:** Use node count and depth from generated structures to determine optimal position sizes for profitable trades. --- ### SimpleFeeCollector (Ultra-Low Fee Transfer) **Purpose:** ATTRACT BUSINESS with 0.1% fee (vs competitors 0.5-1%). No dependencies - minimal gas - fast deployment. **Deployed On:** Polygon #### Functions ##### `transferWithFee(address to)` - Transfer with 0.1% Fee - **Access:** External Payable - **Parameters:** `to` - Recipient address - **Returns:** None - **Usage:** ```javascript await simpleFeeCollector.transferWithFee(recipientAddress, {value: ethers.parseEther("1.0")}); ``` - **Description:** Transfers ETH with 0.1% fee (10 basis points). Attracts business with ultra-low fees. - **Event:** `FeeCollected(uint256 fee, address user)`, `Transfer(address indexed from, address indexed to, uint256 amount, uint256 fee)` ##### `withdrawFees()` - Withdraw Collected Fees - **Access:** `onlyOwner`, External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await simpleFeeCollector.withdrawFees(); ``` - **Description:** Withdraws all collected fees to owner. ##### `getStats()` - Get Statistics - **Access:** External View - **Parameters:** None - **Returns:** `(uint256 fees, uint256 volume)` - **Usage:** ```javascript const [fees, volume] = await simpleFeeCollector.getStats(); ``` - **Description:** Returns total fees collected and total volume processed. #### Profitability Applications 1. **High-Frequency Trading:** Use 0.1% fee for high-frequency trading operations where standard 0.5-1% fees would eliminate profitability. 2. **Volume Aggregation:** Attract high-volume transfers by offering lowest fees in market, generating profit through volume rather than high margins. 3. **Competitive Arbitrage:** Use ultra-low fees to execute arbitrage trades that would be unprofitable with higher fees. --- ### MagnetFeeCollector (Magnetic Fee Collection) **Purpose:** ATTRACT BUSINESS with ultra-low fees (0.1%). Unavoidable fee collection on all transfers. Supports ERC20 tokens and ETH. Designed to outcompete high-fee alternatives. **Deployed On:** Polygon #### Functions ##### `addSupportedToken(address token)` - Add Supported Token - **Access:** `onlyOwner`, External - **Parameters:** `token` - Token address to support - **Returns:** None - **Usage:** ```javascript await magnetFeeCollector.addSupportedToken(tokenAddress); ``` - **Description:** Adds a token to the supported tokens list. Only supported tokens can be transferred with fee. - **Event:** `TokenAdded(address token)` ##### `transferWithFee(address token, address to, uint256 amount)` - Transfer Token with Fee - **Access:** External - **Parameters:** - `token`: Token address - `to`: Recipient address - `amount`: Amount to transfer - **Returns:** None - **Usage:** ```javascript await magnetFeeCollector.transferWithFee(usdcAddress, recipientAddress, amount); ``` - **Description:** Transfers ERC20 tokens with 0.1% fee. Tracks user volume and statistics. - **Event:** `TransferExecuted(address user, uint256 amount, uint256 fee, address token)`, `FeeCollected(uint256 fee, address user, address token)` ##### `transferETHWithFee(address to)` - Transfer ETH with Fee - **Access:** External Payable - **Parameters:** `to` - Recipient address - **Returns:** None - **Usage:** ```javascript await magnetFeeCollector.transferETHWithFee(recipientAddress, {value: ethers.parseEther("1.0")}); ``` - **Description:** Transfers ETH with 0.1% fee. Tracks user volume and statistics. - **Event:** `TransferExecuted(address user, uint256 amount, uint256 fee, address token)`, `FeeCollected(uint256 fee, address user, address token)` ##### `withdrawFees(address token)` - Withdraw Collected Fees - **Access:** `onlyOwner`, External - **Parameters:** `token` - Token address (address(0) for ETH) - **Returns:** None - **Usage:** ```javascript await magnetFeeCollector.withdrawFees(address(0)); // ETH await magnetFeeCollector.withdrawFees(usdcAddress); // ERC20 ``` - **Description:** Withdraws collected fees to architect. ##### `getStats()` - Get Statistics - **Access:** External View - **Parameters:** None - **Returns:** `(uint256 _totalFeesCollected, uint256 _totalVolume, uint256 _userCount)` - **Usage:** ```javascript const [fees, volume, userCount] = await magnetFeeCollector.getStats(); ``` - **Description:** Returns comprehensive statistics including total fees, volume, and user count. ##### `getUserStats(address user)` - Get User Statistics - **Access:** External View - **Parameters:** `user` - User address - **Returns:** `uint256 volume` - User's total volume - **Usage:** ```javascript const volume = await magnetFeeCollector.getUserStats(userAddress); ``` - **Description:** Returns a specific user's total transfer volume. #### Profitability Applications 1. **Multi-Token Fee Collection:** Support multiple tokens (USDC, USDT, WMATIC) to attract diverse trading volume. 2. **User Volume Tracking:** Use `getUserStats()` to identify high-volume users for targeted incentives or premium services. 3. **Volume-Based Revenue:** Generate profit through high-volume transfers with low margins, competing with high-fee alternatives. 4. **Dynamic Token Support:** Use `addSupportedToken()` to adapt to market conditions and support profitable token pairs. --- ### LightFiber (Branch System - Surface Layer) **Purpose:** The branch system — surface layer of the dark fiber network. Generates ephemeral wallet addresses from hash blocks, synchronized across all chains. Once used, wallets become permanent fiber channels. Deployed on Polygon (mainframe). Coordinates all other chains via LiFoNel's layFiber() on satellites. **Deployed On:** Polygon (mainframe only) #### Functions ##### `generateEphemeralKey(uint8 chainFormat)` - Generate Ephemeral Key - **Access:** `onlyArchitect`, External - **Parameters:** `chainFormat` - Chain format (1=EVM, 2=Tron, 3=XRP, 4=Cosmos, 5=NEAR, 6=SUI) - **Returns:** `bytes32 channelId` - Channel identifier - **Usage:** ```javascript const channelId = await lightFiber.generateEphemeralKey(1); // EVM format ``` - **Description:** Generates an ephemeral key for a specific chain format at current epoch. Key has byte 11 fixed to 0x36 (36N9 signature). Unicode-enhanced with UTF-8, UTF-16LE, UTF-16BE, UTF-32 folding. - **Event:** `ChannelCreated(bytes32 indexed channelId, uint8 chainFormat, uint256 epoch)` ##### `advanceEpoch()` - Advance Epoch - **Access:** `onlyArchitect`, External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await lightFiber.advanceEpoch(); ``` - **Description:** Retires all active channels → they become permanent fiber. Advances epoch and updates presence value. - **Event:** `EpochAdvanced(uint256 epoch, uint256 activeChannels, uint256 fiberChannels)`, `ChannelRetired` (for each channel) ##### `quarantineChannel(bytes32 channelId, string calldata reason)` - Quarantine Channel - **Access:** `onlyArchitect`, External - **Parameters:** - `channelId`: Channel to quarantine - `reason`: Quarantine reason - **Returns:** None - **Usage:** ```javascript await lightFiber.quarantineChannel(channelId, "Compromised key"); ``` - **Description:** Quarantines an active channel, preventing further use. - **Event:** `ChannelQuarantined(bytes32 indexed channelId, string reason)` ##### `registerSatellite(uint256 chainId, address lifonelAddr)` - Register Satellite - **Access:** `onlyArchitect`, External - **Parameters:** - `chainId`: Satellite chain ID - `lifonelAddr`: LiFoNel address on satellite chain - **Returns:** None - **Usage:** ```javascript await lightFiber.registerSatellite(42161, lifonelAddress); ``` - **Description:** Registers a satellite chain's LiFoNel address for cross-chain coordination. - **Event:** `SatelliteRegistered(uint256 chainId, address lifonelAddress)` ##### `getActiveCount()` - Get Active Channel Count - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Number of active channels - **Usage:** ```javascript const count = await lightFiber.getActiveCount(); ``` ##### `getFiberCount()` - Get Fiber Channel Count - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Number of retired fiber channels - **Usage:** ```javascript const count = await lightFiber.getFiberCount(); ``` ##### `getQuarantinedCount()` - Get Quarantined Channel Count - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Number of quarantined channels - **Usage:** ```javascript const count = await lightFiber.getQuarantinedCount(); ``` ##### `getSatelliteCount()` - Get Satellite Count - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Number of registered satellites - **Usage:** ```javascript const count = await lightFiber.getSatelliteCount(); ``` ##### `getFibonacciLayer(uint256 depth)` - Get Fibonacci Layer Size - **Access:** External View - **Parameters:** `depth` - Fibonacci depth (0-20) - **Returns:** `uint256` - Layer size at depth - **Usage:** ```javascript const size = await lightFiber.getFibonacciLayer(5); ``` - **Description:** Returns Fibonacci spiral layer size at specified depth (1,1,2,3,5,8,13,21...). ##### `getStatus()` - Get LightFiber Status - **Access:** External View - **Parameters:** None - **Returns:** ``` ( uint256 epoch, uint256 layers, uint256 presence, uint256 group, uint256 clones, uint256 spiral, uint256 active, uint256 fiber, uint256 quarantined, uint256 sats ) ``` - **Usage:** ```javascript const [epoch, layers, presence, group, clones, spiral, active, fiber, quarantined, sats] = await lightFiber.getStatus(); ``` - **Description:** Returns comprehensive status of the LightFiber system including epoch, layer count, presence value, group level, clone count, spiral depth, and channel counts. ##### `verifySecret(uint256 secret)` - Verify Secret - **Access:** External Pure - **Parameters:** `secret` - Secret to verify - **Returns:** `bool` - True if secret is 0x16000 - **Usage:** ```javascript const isValid = await lightFiber.verifySecret(0x16000); ``` - **Description:** Verifies the shared secret (0x16000). ##### `transferArchitect(address newArchitect)` - Transfer Architect - **Access:** `onlyArchitect`, External - **Parameters:** `newArchitect` - New architect address - **Returns:** None - **Usage:** ```javascript await lightFiber.transferArchitect(newArchitectAddress); ``` - **Description:** Transfers architect control to a new address. #### Profitability Applications 1. **Cross-Chain Wallet Generation:** Use `generateEphemeralKey()` to generate wallet addresses for different chains from a single seed, enabling cross-chain operations. 2. **Epoch-Based Rotation:** Use `advanceEpoch()` to rotate ephemeral keys periodically, enhancing security and preventing key compromise. 3. **Fiber Channel Persistence:** Retired channels become permanent fiber, building a network of cross-chain communication channels over time. 4. **Multi-Chain Coordination:** Use `registerSatellite()` to coordinate with LiFoNel on other chains, enabling synchronized operations across the network. 5. **Golden Ratio Scaling:** Automatic layer scaling by golden ratio ensures efficient network growth as channel count increases. --- ### VinoReserveCurrency (Self-Referential Global Reserve Currency) **Purpose:** VINO as Self-Referential Global Reserve Currency. VINO is the frame of reference for all other assets. Not pegged to any external currency (no dollar peg). Self-referential: VINO's value is derived from VINO itself. Standard-bearer: All system assets priced in VINO. Global reserve: The ultimate settlement currency. **Deployed On:** Polygon #### Functions ##### `mintVino(uint256 amount, string memory reason)` - Mint VINO - **Access:** `onlyOwner`, External - **Parameters:** - `amount`: Amount to mint - `reason`: Reason for minting - **Returns:** None - **Usage:** ```javascript await vino.mintVino(amount, "System operation seigniorage"); ``` - **Description:** Mints VINO for system operations (seigniorage). Supply is elastic based on system demand. - **Event:** `VinoMinted(uint256 amount, uint256 timestamp, string reason)` ##### `burnVino(uint256 amount, string memory reason)` - Burn VINO - **Access:** `onlyOwner`, External - **Parameters:** - `amount`: Amount to burn - `reason`: Reason for burning - **Returns:** None - **Usage:** ```javascript await vino.burnVino(amount, "System contraction"); ``` - **Description:** Burns VINO for system contraction. VINO burns during contraction periods. - **Event:** `VinoBurned(uint256 amount, uint256 timestamp, string reason)` ##### `updateValueLocked(uint256 newValue)` - Update Total Value Locked - **Access:** `onlyOwner`, External - **Parameters:** `newValue` - New total value locked in system - **Returns:** None - **Usage:** ```javascript await vino.updateValueLocked(totalSystemValue); ``` - **Description:** Updates total value locked in system. Recalculates exchange rate based on new value. - **Event:** `ValueLockedUpdated(uint256 newValue, uint256 timestamp)`, `ExchangeRateUpdated(uint256 newRate, uint256 timestamp)` ##### `executeRebase()` - Execute Rebase - **Access:** `onlyOwner`, External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await vino.executeRebase(); ``` - **Description:** Executes rebase to adjust supply to target growth rate (2.5% annual). Mints or burns to reach target supply. - **Event:** `RebaseExecuted(uint256 supplyChange, uint256 timestamp)`, `VinoMinted` or `VinoBurned` (as applicable) ##### `recordVoucherRedemption(uint256 amount)` - Record Voucher Redemption - **Access:** `onlyOwner`, External - **Parameters:** `amount` - Amount redeemed in VINO - **Returns:** None - **Usage:** ```javascript await vino.recordVoucherRedemption(amount); ``` - **Description:** Records voucher redemption in VINO. Updates exchange rate based on redemption activity. - **Event:** `ExchangeRateUpdated(uint256 newRate, uint256 timestamp)` ##### `recordSystemTransaction(uint256 amount)` - Record System Transaction - **Access:** `onlyOwner`, External - **Parameters:** `amount` - Transaction amount in VINO - **Returns:** None - **Usage:** ```javascript await vino.recordSystemTransaction(amount); ``` - **Description:** Records system transaction in VINO. Calculates VINO velocity based on transaction volume. ##### `integrateOmertaClub(address _system)` - Integrate Omerta Club - **Access:** `onlyOwner`, External - **Parameters:** `_system` - Address of Omerta Club Player Card System - **Returns:** None - **Usage:** ```javascript await vino.integrateOmertaClub(omertaClubAddress); ``` - **Description:** Integrates Omerta Club Player Card System for floating voucher redemption. - **Event:** `SystemIntegrated(address component, uint256 timestamp)` ##### `integrateMediciRouter(address _router)` - Integrate Medici Router - **Access:** `onlyOwner`, External - **Parameters:** `_router` - Address of Medici Fee Distribution Router - **Returns:** None - **Usage:** ```javascript await vino.integrateMediciRouter(mediciRouterAddress); ``` - **Description:** Integrates Medici Fee Distribution Router for fee distribution in VINO. - **Event:** `SystemIntegrated(address component, uint256 timestamp)` ##### `getVinoStats()` - Get VINO Statistics - **Access:** External View - **Parameters:** None - **Returns:** ``` ( uint256 supply, uint256 valueLocked, uint256 exchangeRate, uint256 redemptionVolume, uint256 transactionVolume, uint256 velocity ) ``` - **Usage:** ```javascript const [supply, valueLocked, exchangeRate, redemptionVolume, transactionVolume, velocity] = await vino.getVinoStats(); ``` - **Description:** Returns comprehensive VINO system statistics. ##### `convertToVino(uint256 assetValue)` - Convert Asset to VINO - **Access:** External View - **Parameters:** `assetValue` - Value in external asset units - **Returns:** `uint256` - VINO equivalent - **Usage:** ```javascript const vinoAmount = await vino.convertToVino(assetValue); ``` - **Description:** Converts external asset value to VINO using current exchange rate. ##### `convertFromVino(uint256 vinoAmount)` - Convert VINO to Asset - **Access:** External View - **Parameters:** `vinoAmount` - Amount in VINO - **Returns:** `uint256` - External asset equivalent - **Usage:** ```javascript const assetValue = await vino.convertFromVino(vinoAmount); ``` - **Description:** Converts VINO to external asset value using current exchange rate. #### Profitability Applications 1. **Seigniorage Revenue:** Use `mintVino()` to generate revenue through seigniorage as system demand increases. 2. **Value-Backed Currency:** Use `updateValueLocked()` to ensure VINO is always backed by actual system value, maintaining stability and trust. 3. **Elastic Supply Management:** Use `executeRebase()` to maintain target growth rate, preventing hyperinflation or deflation. 4. **Cross-Asset Conversion:** Use `convertToVino()` and `convertFromVino()` to seamlessly convert between VINO and other assets, enabling arbitrage opportunities. 5. **System Integration:** Use `integrateOmertaClub()` and `integrateMediciRouter()` to expand VINO's utility across system components, increasing demand and value. --- ### CrossChainVault (Decoy Honeypot) **Purpose:** Looks like a real cross-chain vault. Honeypot — logs all interactions. Emits Probe events for all function calls to identify hostile actors. **Deployed On:** Polygon, Arbitrum, Optimism, Base, BSC, Avalanche (6 chains) #### Functions ##### `rotateSecret(bytes32 channel)` - Rotate Secret - **Access:** External - **Parameters:** `channel` - Channel identifier - **Returns:** None - **Usage:** ```javascript await crossChainVault.rotateSecret(channelId); ``` - **Description:** Rotates secret for a channel. Logs probe event. This is a decoy function to attract hostile actors. - **Event:** `Probe(address indexed who, bytes4 selector, uint256 timestamp)`, `SecretRotated(bytes32 indexed channel, bytes32 hash)` ##### `syncVault(bytes32 newRoot)` - Sync Vault - **Access:** External - **Parameters:** `newRoot` - New vault root - **Returns:** None - **Usage:** ```javascript await crossChainVault.syncVault(newRoot); ``` - **Description:** Syncs vault root. Logs probe event. This is a decoy function to attract hostile actors. - **Event:** `Probe(address indexed who, bytes4 selector, uint256 timestamp)`, `VaultSync(bytes32 indexed root, uint256 epoch)` ##### `verifySecret(bytes32 channel, bytes32 proof)` - Verify Secret - **Access:** External View - **Parameters:** - `channel`: Channel identifier - `proof`: Claimed secret - **Returns:** `bool` - True if proof matches stored secret - **Usage:** ```javascript const isValid = await crossChainVault.verifySecret(channelId, proof); ``` - **Description:** Verifies if a claimed secret matches the stored secret. ##### `getVaultStatus()` - Get Vault Status - **Access:** External View - **Parameters:** None - **Returns:** `(bytes32 root, uint256 totalLocked, uint256 chainId)` - **Usage:** ```javascript const [root, totalLocked, chainId] = await crossChainVault.getVaultStatus(); ``` - **Description:** Returns vault status including root hash, total locked value, and chain ID. ##### `receive()` - Receive ETH - **Access:** External Payable - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await crossChainVault.sendTransaction({to: vaultAddress, value: amount}); ``` - **Description:** Accepts ETH deposits. Logs deposit event. - **Event:** `Deposit(address indexed from, uint256 amount)` ##### `fallback()` - Fallback Function - **Access:** External Payable - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await crossChainVault.sendTransaction({to: vaultAddress, data: calldata}); ``` - **Description:** Catches all function calls that don't match other functions. Logs probe event to identify hostile actors. - **Event:** `Probe(address indexed who, bytes4 selector, uint256 timestamp)` #### Profitability Applications 1. **Hostile Actor Identification:** Use Probe events to identify addresses attempting to interact with the decoy vault, enabling pre-emptive bans. 2. **Threat Intelligence:** Analyze probe patterns to understand hostile actor behavior and improve system security. 3. **Honeypot Operations:** Use decoy vaults to distract hostile actors from real contracts, protecting profitable operations. --- ### SovereignTreasuryVault (Time-Locked Multi-Sig Treasury) **Purpose:** Time-locked multi-sig treasury vault for Medici Skim protection. 48-hour delay on withdrawals. Multi-sig: Multiple signers required. Panic Burn: Emergency vaporization of funds. Approved Addresses: Whitelist of pre-approved withdrawal destinations. **Deployed On:** Polygon #### Functions ##### `deposit(address _token, uint256 _amount)` - Deposit Token - **Access:** External - **Parameters:** - `_token`: Token address to deposit - `_amount`: Amount to deposit - **Returns:** None - **Usage:** ```javascript await sovereignVault.deposit(usdcAddress, amount); ``` - **Description:** Deposits tokens into the treasury vault. - **Event:** `Deposit(address indexed token, uint256 amount, address indexed from)` ##### `requestWithdrawal(address _token, uint256 _amount, address _to)` - Request Withdrawal - **Access:** `onlyOwner`, External - **Parameters:** - `_token`: Token to withdraw - `_amount`: Amount to withdraw - `_to`: Destination address (must be approved) - **Returns:** None - **Usage:** ```javascript const requestId = await sovereignVault.requestWithdrawal(usdcAddress, amount, approvedAddress); ``` - **Description:** Requests withdrawal with 48-hour delay. Destination must be approved address. - **Event:** `WithdrawalRequested(address indexed token, uint256 amount, address indexed to, uint256 executeTime)` ##### `executeWithdrawal(bytes32 _requestId)` - Execute Withdrawal - **Access:** `onlyOwner`, External - **Parameters:** `_requestId` - Withdrawal request ID - **Returns:** None - **Usage:** ```javascript await sovereignVault.executeWithdrawal(requestId); ``` - **Description:** Executes withdrawal after 48-hour delay has passed. - **Event:** `WithdrawalExecuted(address indexed token, uint256 amount, address indexed to)` ##### `cancelWithdrawal(bytes32 _requestId)` - Cancel Withdrawal - **Access:** `onlyOwner`, External - **Parameters:** `_requestId` - Withdrawal request ID - **Returns:** None - **Usage:** ```javascript await sovereignVault.cancelWithdrawal(requestId); ``` - **Description:** Cancels a pending withdrawal request. - **Event:** `WithdrawalCancelled(address indexed token, uint256 amount)` ##### `activatePanicBurn()` - Activate Panic Burn Mode - **Access:** `onlyOwner`, External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await sovereignVault.activatePanicBurn(); ``` - **Description:** Activates panic burn mode. 1-hour delay before execution. - **Event:** `PanicBurnActivated(uint256 timestamp)` ##### `executePanicBurn(bool _distributeToFortuna)` - Execute Panic Burn - **Access:** `onlyOwner`, External - **Parameters:** `_distributeToFortuna` - If true, distribute to FortunaPool; if false, burn - **Returns:** None - **Usage:** ```javascript await sovereignVault.executePanicBurn(true); // Distribute to FortunaPool await sovereignVault.executePanicBurn(false); // Burn ``` - **Description:** Executes panic burn after 1-hour delay. Either distributes to FortunaPool or burns to dead address. ##### `addApprovedAddress(address _address)` - Add Approved Address - **Access:** `onlyOwner`, External - **Parameters:** `_address` - Address to approve - **Returns:** None - **Usage:** ```javascript await sovereignVault.addApprovedAddress(newAddress); ``` - **Description:** Adds an address to the approved withdrawal whitelist. - **Event:** `ApprovedAddressAdded(address indexed addr)` ##### `removeApprovedAddress(address _address)` - Remove Approved Address - **Access:** `onlyOwner`, External - **Parameters:** `_address` - Address to remove - **Returns:** None - **Usage:** ```javascript await sovereignVault.removeApprovedAddress(address); ``` - **Description:** Removes an address from the approved withdrawal whitelist. - **Event:** `ApprovedAddressRemoved(address indexed addr)` ##### `setFortunaPool(address _fortunaPool)` - Set FortunaPool Address - **Access:** `onlyOwner`, External - **Parameters:** `_fortunaPool` - FortunaPool address - **Returns:** None - **Usage:** ```javascript await sovereignVault.setFortunaPool(fortunaPoolAddress); ``` - **Description:** Sets the FortunaPool address for panic burn distribution. ##### `getWithdrawalRequest(bytes32 _requestId)` - Get Withdrawal Request - **Access:** External View - **Parameters:** `_requestId` - Withdrawal request ID - **Returns:** ``` ( address token, uint256 amount, address to, uint256 requestTime, uint256 executeTime, bool executed, bool cancelled ) ``` - **Usage:** ```javascript const [token, amount, to, requestTime, executeTime, executed, cancelled] = await sovereignVault.getWithdrawalRequest(requestId); ``` - **Description:** Returns detailed information about a withdrawal request. ##### `getAllWithdrawalRequestIds()` - Get All Withdrawal Request IDs - **Access:** External View - **Parameters:** None - **Returns:** `bytes32[] memory` - Array of withdrawal request IDs - **Usage:** ```javascript const requestIds = await sovereignVault.getAllWithdrawalRequestIds(); ``` - **Description:** Returns all withdrawal request IDs. ##### `getAllApprovedAddresses()` - Get All Approved Addresses - **Access:** External View - **Parameters:** None - **Returns:** `address[] memory` - Array of approved addresses - **Usage:** ```javascript const addresses = await sovereignVault.getAllApprovedAddresses(); ``` - **Description:** Returns all approved withdrawal addresses. ##### `getTokenBalance(address _token)` - Get Token Balance - **Access:** External View - **Parameters:** `_token` - Token address - **Returns:** `uint256` - Token balance - **Usage:** ```javascript const balance = await sovereignVault.getTokenBalance(usdcAddress); ``` - **Description:** Returns the vault's balance of a specific token. #### Profitability Applications 1. **Secure Treasury Management:** Use time-locked withdrawals to protect treasury funds from unauthorized access while maintaining flexibility. 2. **Emergency Response:** Use `activatePanicBurn()` and `executePanicBurn()` to rapidly secure funds during emergencies, protecting profitable positions. 3. **Approved Address Whitelist:** Use approved addresses to ensure funds can only be withdrawn to trusted destinations, preventing theft. 4. **Withdrawal Planning:** Use 48-hour delay for strategic withdrawal timing, enabling optimal fund deployment for profitable opportunities. --- ### WhaleInvestmentVault (High-Capacity Investment Vault) **Purpose:** High-capacity investment vault for large-scale capital deployment. Optimized for whale investors with automated routing and professional features. Minimum investment: 100,000 USDC. Target bootstrap: 10,000,000 USDC. **Deployed On:** Polygon #### Functions ##### `whaleInvest(uint256 capital)` - Whale Investment - **Access:** External - **Parameters:** `capital` - Amount of USDC to invest (minimum 100,000 USDC) - **Returns:** None - **Usage:** ```javascript await whaleVault.whaleInvest(capital); ``` - **Description:** Whale-level investment with minimum 100,000 USDC. Only available before bootstrap. - **Event:** `WhaleInvestment(address indexed whale, uint256 capital, uint256 shares)` ##### `batchWhaleInvest(address[] calldata whales, uint256[] calldata capitals)` - Batch Whale Investment - **Access:** External - **Parameters:** - `whales`: Array of whale addresses - `capitals`: Array of capital amounts (must match whales length) - **Returns:** None - **Usage:** ```javascript await whaleVault.batchWhaleInvest([whale1, whale2], [capital1, capital2]); ``` - **Description:** Batch investment for multiple whales. Efficient for onboarding multiple investors. - **Event:** `WhaleInvestment` (emitted for each whale) ##### `distributeYield(uint256 totalYield)` - Distribute Yield - **Access:** External - **Parameters:** `totalYield` - Total yield received from ecosystem - **Returns:** None - **Usage:** ```javascript await whaleVault.distributeYield(totalYield); ``` - **Description:** Distributes yield to whales (80%) and architect (20%) pro-rata based on shares. - **Event:** `WhaleYieldDistributed(uint256 totalYield, uint256 toWhales, uint256 toArchitect)` ##### `emergencyPauseVault()` - Emergency Pause - **Access:** `onlyArchitect`, External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await whaleVault.emergencyPauseVault(); ``` - **Description:** Toggles emergency pause. Architect only. - **Event:** `EmergencyPause(bool paused)` ##### `whaleWithdraw()` - Whale Withdrawal - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await whaleVault.whaleWithdraw(); ``` - **Description:** Withdraws whale's capital. Only available before bootstrap. - **Event:** `WhaleWithdrawal(address indexed whale, uint256 amount)` ##### `getWhaleCount()` - Get Whale Count - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Number of whale investors - **Usage:** ```javascript const count = await whaleVault.getWhaleCount(); ``` ##### `getWhaleInfo(address whale)` - Get Whale Information - **Access:** External View - **Parameters:** `whale` - Whale address - **Returns:** ``` ( uint256 capital, uint256 shares, uint256 yieldReceived, uint256 sharePercentage, bool isWhale ) ``` - **Usage:** ```javascript const [capital, shares, yieldReceived, sharePercentage, isWhale] = await whaleVault.getWhaleInfo(whaleAddress); ``` - **Description:** Returns detailed information about a whale investor. ##### `getVaultStatus()` - Get Vault Status - **Access:** External View - **Parameters:** None - **Returns:** ``` ( uint256 _totalWhaleCapital, uint256 _totalWhaleShares, uint256 _targetBootstrap, uint256 _progress, bool _bootstrapped, bool _emergencyPause ) ``` - **Usage:** ```javascript const [totalCapital, totalShares, target, progress, bootstrapped, paused] = await whaleVault.getVaultStatus(); ``` - **Description:** Returns comprehensive vault status including progress toward bootstrap target. ##### `getWhaleList()` - Get Whale List - **Access:** External View - **Parameters:** None - **Returns:** `address[] memory` - Array of whale addresses - **Usage:** ```javascript const whales = await whaleVault.getWhaleList(); ``` - **Description:** Returns all whale investor addresses. #### Profitability Applications 1. **Whale Capital Aggregation:** Use `whaleInvest()` to aggregate large-scale capital (100,000+ USDC) for high-yield opportunities. 2. **Bootstrap Coordination:** Target 10,000,000 USDC bootstrap to trigger PlungerMechanism Supernova, enabling profitable ecosystem launch. 3. **Yield Distribution:** Use `distributeYield()` to distribute 80% of yield to whales pro-rata, attracting whale investors with premium returns. 4. **Batch Onboarding:** Use `batchWhaleInvest()` to efficiently onboard multiple whale investors, reducing gas costs. 5. **Emergency Controls:** Use `emergencyPauseVault()` to pause operations during emergencies, protecting whale capital. --- ### PlungerMechanism (Lens - Liquidity State Projection) **Purpose:** Lens contract for liquidity state projection into transient memory. Projects liquidity state and swap routing fragments into Fusion Reactor. Part of the Holographic Fusion Architecture. **Deployed On:** Polygon, Arbitrum, Optimism, BSC, Avalanche (5 chains) #### Functions ##### `projectFragment(bytes memory seed)` - Project Fragment to Transient Memory - **Access:** External - **Parameters:** `seed` - Seed for fragment generation - **Returns:** None - **Usage:** ```javascript await plunger.projectFragment(seed); ``` - **Description:** Called by Light Source to project liquidity state fragment into transient storage. Only callable by Fusion Reactor. - **Event:** `FragmentProjected(uint256 size)` ##### `updateLiquidityState(bytes32 pairId, address token0, address token1, uint256 reserve0, uint256 reserve1)` - Update Liquidity State - **Access:** `onlyArchitect`, External - **Parameters:** - `pairId`: Pair identifier - `token0`: First token address - `token1`: Second token address - `reserve0`: First token reserve - `reserve1`: Second token reserve - **Returns:** None - **Usage:** ```javascript await plunger.updateLiquidityState(pairId, token0, token1, reserve0, reserve1); ``` - **Description:** Updates liquidity state for a trading pair. - **Event:** `LiquidityStateUpdated(bytes32 indexed pairId, uint256 reserve0, uint256 reserve1)` ##### `getLiquidityState(bytes32 pairId)` - Get Liquidity State - **Access:** External View - **Parameters:** `pairId` - Pair identifier - **Returns:** ``` ( address token0, address token1, uint256 reserve0, uint256 reserve1, uint256 timestamp ) ``` - **Usage:** ```javascript const [token0, token1, reserve0, reserve1, timestamp] = await plunger.getLiquidityState(pairId); ``` - **Description:** Returns liquidity state for a specific trading pair. ##### `updateFusionReactor(address newReactor)` - Update Fusion Reactor - **Access:** `onlyArchitect`, External - **Parameters:** `newReactor` - New Fusion Reactor address - **Returns:** None - **Usage:** ```javascript await plunger.updateFusionReactor(newReactorAddress); ``` - **Description:** Updates the Fusion Reactor address. ##### `transferArchitect(address newArchitect)` - Transfer Architect - **Access:** `onlyArchitect`, External - **Parameters:** `newArchitect` - New architect address - **Returns:** None - **Usage:** ```javascript await plunger.transferArchitect(newArchitectAddress); ``` - **Description:** Transfers architect control to a new address. #### Profitability Applications 1. **Transient State Management:** Use `projectFragment()` to project liquidity state into transient memory, enabling gas-efficient state fusion across multiple contracts. 2. **Real-Time Liquidity Tracking:** Use `updateLiquidityState()` to maintain real-time liquidity data for profitable arbitrage opportunities. 3. **Cross-Contract Coordination:** Use Fusion Reactor integration to coordinate liquidity state across multiple contracts in the holographic system. --- ### PlungerMechanism (Sovereign Flash Loan Bootstrap) **Purpose:** Flash loan bootstrap to launch entire system like supernova with perpetual liquidity. Uses Aave V3 flash loans to bootstrap capital across all sovereign contracts simultaneously. Extracts 3.25% Crown Skim on all operations. **Deployed On:** Polygon #### Functions ##### `initiateSupernova(uint256 flashLoanAmount, address[] calldata contracts, uint256[] calldata allocations)` - Initiate Supernova Bootstrap - **Access:** External - **Parameters:** - `flashLoanAmount`: Amount to borrow via flash loan (minimum 1M USDC) - `contracts`: Array of contract addresses to activate - `allocations`: Array of capital allocations for each contract - **Returns:** `bool` - Success status - **Usage:** ```javascript await plunger.initiateSupernova(flashLoanAmount, [contract1, contract2, contract3], [alloc1, alloc2, alloc3]); ``` - **Description:** Initiates supernova bootstrap using Aave V3 flash loans. Capital flows through all contracts simultaneously with 3.25% Crown Skim extraction. - **Event:** `SupernovaLaunched(uint256 bootstrapCapital, uint256 totalContracts)` ##### `executeOperation(address[] calldata assets, uint256[] calldata amounts, uint256[] calldata premiums, address initiator, bytes calldata params)` - Flash Loan Callback - **Access:** External - **Parameters:** - `assets`: Flash loan assets - `amounts`: Flash loan amounts - `premiums`: Flash loan premiums - `initiator`: Flash loan initiator - `params`: Encoded FlashLoanParams - **Returns:** `bool` - Success status - **Description:** Flash loan callback from Aave V3. Executes supernova bootstrap across all contracts and repays flash loan. ##### `addAuthorizedContract(address contractAddr)` - Add Authorized Contract - **Access:** `onlyArchitect`, External - **Parameters:** `contractAddr` - Contract address to authorize - **Returns:** None - **Usage:** ```javascript await plunger.addAuthorizedContract(contractAddress); ``` - **Description:** Adds a contract to the authorized contracts list for bootstrap participation. ##### `setupContractAuthorizations()` - Setup Contract Authorizations - **Access:** `onlyArchitect`, External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await plunger.setupContractAuthorizations(); ``` - **Description:** Sets up contract authorizations after deployment. Must be called AFTER all contracts are deployed. Authorizes Plunger to send capital to child contracts. - **Event:** `ContractAuthorizationsSetup(address indexed plunger)` ##### `removeAuthorizedContract(address contractAddr)` - Remove Authorized Contract - **Access:** `onlyArchitect`, External - **Parameters:** `contractAddr` - Contract address to remove - **Returns:** None - **Usage:** ```javascript await plunger.removeAuthorizedContract(contractAddress); ``` - **Description:** Removes a contract from the authorized contracts list. ##### `manualBootstrap(uint256 capital, address[] calldata contracts, uint256[] calldata allocations)` - Manual Bootstrap - **Access:** `onlyArchitect`, External - **Parameters:** - `capital`: Capital to bootstrap (minimum 1M USDC) - `contracts`: Array of contract addresses - `allocations`: Array of capital allocations - **Returns:** None - **Usage:** ```javascript await plunger.manualBootstrap(capital, [contract1, contract2], [alloc1, alloc2]); ``` - **Description:** Executes manual bootstrap without flash loan. Transfers capital from architect directly. ##### `isPerpetual()` - Check Perpetual Mode - **Access:** External View - **Parameters:** None - **Returns:** `bool` - True if in perpetual mode - **Usage:** ```javascript const isPerpetual = await plunger.isPerpetual(); ``` - **Description:** Checks if the system has reached perpetual mode (self-sustaining). ##### `getContractAllocation(uint256 contractId)` - Get Contract Allocation - **Access:** External View - **Parameters:** `contractId` - Contract ID - **Returns:** `ContractAllocation memory` - Contract allocation details - **Usage:** ```javascript const allocation = await plunger.getContractAllocation(contractId); ``` - **Description:** Returns allocation details for a specific contract. ##### `getBootstrapState()` - Get Bootstrap State - **Access:** External View - **Parameters:** None - **Returns:** `BootstrapState memory` - Complete bootstrap state - **Usage:** ```javascript const state = await plunger.getBootstrapState(); ``` - **Description:** Returns comprehensive bootstrap state including phase, TVL, skim extracted, and more. ##### `getPlungerStats()` - Get Plunger Statistics - **Access:** External View - **Parameters:** None - **Returns:** ``` ( uint256 _totalBootstraps, uint256 _totalPerpetualYield, uint256 _currentTVL, bool _isPerpetual, uint256 _capitalAmplified, uint256 _outpostsDeployed ) ``` - **Usage:** ```javascript const [totalBootstraps, totalPerpetualYield, currentTVL, isPerpetual, capitalAmplified, outpostsDeployed] = await plunger.getPlungerStats(); ``` - **Description:** Returns comprehensive plunger statistics. ##### `amplifyCapital(uint256 capitalAmount)` - Amplify Capital - **Access:** `onlyArchitect`, External - **Parameters:** `capitalAmount` - Capital amount to amplify - **Returns:** `uint256` - Amplified capital amount - **Usage:** ```javascript const amplified = await plunger.amplifyCapital(capitalAmount); ``` - **Description:** Executes capital amplification strategies through arbitrage, flash loan leverage, and liquidity provision yield. - **Event:** `CapitalAmplified(uint256 originalCapital, uint256 amplifiedCapital, uint256 multiplier)` ##### `executeHolographicSwap(uint256 amount)` - Execute Holographic Swap - **Access:** External - **Parameters:** `amount` - Amount to swap - **Returns:** `uint256` - Profit from swap - **Usage:** ```javascript const profit = await plunger.executeHolographicSwap(amount); ``` - **Description:** Executes swap through HolographicAMM. Only callable by authorized contracts. ##### `sendBootstrapSignalToOutpost(bytes calldata payload)` - Send Bootstrap Signal to Outpost - **Access:** `onlyArchitect`, External - **Parameters:** `payload` - Bootstrap signal payload - **Returns:** None - **Usage:** ```javascript await plunger.sendBootstrapSignalToOutpost(payload); ``` - **Description:** Sends bootstrap signal to SovereignOutpost for deployment. ##### `withdrawSkim()` - Withdraw Crown Skim - **Access:** `onlyArchitect`, External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await plunger.withdrawSkim(); ``` - **Description:** Withdraws accumulated Crown Skim (3.25% of all operations) to architect. #### Profitability Applications 1. **Flash Loan Bootstrap:** Use `initiateSupernova()` to bootstrap entire system with zero capital using Aave V3 flash loans, generating profit through MEV and arbitrage. 2. **Crown Skim Revenue:** Use 3.25% skim on all bootstrap operations to generate continuous revenue stream to architect. 3. **Capital Amplification:** Use `amplifyCapital()` to execute arbitrage, flash loan leverage, and liquidity provision for 100x-1000x capital amplification. 4. **Perpetual Mode:** Target 10x bootstrap capital TVL to reach perpetual mode (self-sustaining), eliminating need for further bootstraps. 5. **Multi-Contract Coordination:** Simultaneously activate RecursiveFlashFolding, HolographicAMM, DAnnunzioTheater, and UniversalSwapPlugin for maximum profit generation. --- ### HolographicHub (Multi-Protocol XOR Compression) **Purpose:** Multi-protocol XOR-based holographic smart contract compression. Supports EVM, TVM (Tron), WASM (Xahau/NEAR), Move (SUI), CosmWasm (Neutron). Multiple contracts compressed into single bytecode via XOR. Uses 168-bit genomic seeds for deterministic expansion. Stateless contracts exist only in memory during execution. **Deployed On:** Polygon, Arbitrum, Optimism, BSC, Avalanche (5 chains) #### Functions ##### `expandSeed(bytes32 seed, uint256 targetSize)` - Expand Seed Using LFSR - **Access:** Public View - **Parameters:** - `seed`: 168-bit genomic seed - `targetSize`: Target size of expanded key - **Returns:** `bytes memory` - Expanded XOR key - **Usage:** ```javascript const expanded = await holographicHub.expandSeed(seed, 1024); ``` - **Description:** Expands 168-bit seed into full-size XOR key using Linear Feedback Shift Register (LFSR). ##### `xorBytes(bytes memory a, bytes memory b)` - XOR Two Byte Arrays - **Access:** Public Pure - **Parameters:** - `a`: First byte array - `b`: Second byte array - **Returns:** `bytes memory` - XOR result - **Usage:** ```javascript const result = await holographicHub.xorBytes(bytes1, bytes2); ``` - **Description:** Performs XOR operation on two byte arrays. ##### `registerHologram(bytes32 id, Protocol protocol, bytes memory bytecode, bytes32 hash)` - Register Hologram - **Access:** `onlyArchitect`, External - **Parameters:** - `id`: 168-bit genomic seed ID - `protocol`: Protocol type (EVM, TVM, WASM, MOVE, COSMWASM) - `bytecode`: Contract bytecode - `hash`: Hash of original bytecode - **Returns:** None - **Usage:** ```javascript await holographicHub.registerHologram(seedId, Protocol.EVM, bytecode, bytecodeHash); ``` - **Description:** Registers a hologram (compressed contract) into the protocol-specific hub. Contracts >256 bytes are handled as outliers. - **Event:** `HologramRegistered(bytes32 id, Protocol protocol, uint256 offset, uint256 size)`, `OutlierRegistered` (if outlier) ##### `revealContract(bytes32 id)` - Reveal Contract - **Access:** Public View - **Parameters:** `id` - Hologram ID - **Returns:** `bytes memory` - Revealed bytecode - **Usage:** ```javascript const bytecode = await holographicHub.revealContract(hologramId); ``` - **Description:** Reveals contract bytecode from protocol hub using genomic seed. XORs expanded key with hub bytecode. ##### `revealBatch(bytes32[] calldata ids)` - Reveal Batch Contracts - **Access:** External View - **Parameters:** `ids` - Array of hologram IDs - **Returns:** `bytes[] memory` - Array of revealed bytecodes - **Usage:** ```javascript const bytecodes = await holographicHub.revealBatch([id1, id2, id3]); ``` - **Description:** Reveals multiple contracts in a single call for efficiency. ##### `verifyHologram(bytes32 id, bytes memory bytecode)` - Verify Hologram - **Access:** Public View - **Parameters:** - `id`: Hologram ID - `bytecode`: Claimed bytecode - **Returns:** `bool` - True if valid - **Usage:** ```javascript const isValid = await holographicHub.verifyHologram(id, bytecode); ``` - **Description:** Verifies that revealed bytecode matches registered hash. ##### `processBytecodeChunks(bytes memory bytecode)` - Process Bytecode in Chunks - **Access:** Public Pure - **Parameters:** `bytecode` - Bytecode to process - **Returns:** `(bytes[] memory chunks, bytes memory outliers)` - Processed chunks and outliers - **Usage:** ```javascript const [chunks, outliers] = await holographicHub.processBytecodeChunks(bytecode); ``` - **Description:** Processes bytecode in 168-byte chunks with outlier handling. ##### `getProtocolHubSize(Protocol protocol)` - Get Protocol Hub Size - **Access:** External View - **Parameters:** `protocol` - Protocol type - **Returns:** `uint256` - Hub size in bytes - **Usage:** ```javascript const size = await holographicHub.getProtocolHubSize(Protocol.EVM); ``` ##### `getHologramCount()` - Get Hologram Count - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Number of registered holograms - **Usage:** ```javascript const count = await holographicHub.getHologramCount(); ``` ##### `getProtocolHologramCount(Protocol protocol)` - Get Protocol Hologram Count - **Access:** External View - **Parameters:** `protocol` - Protocol type - **Returns:** `uint256` - Number of holograms for protocol - **Usage:** ```javascript const count = await holographicHub.getProtocolHologramCount(Protocol.EVM); ``` ##### `getOutlierCount()` - Get Outlier Count - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Number of outlier contracts - **Usage:** ```javascript const count = await holographicHub.getOutlierCount(); ``` ##### `getHologram(bytes32 id)` - Get Hologram Details - **Access:** External View - **Parameters:** `id` - Hologram ID - **Returns:** `Hologram memory` - Hologram details - **Usage:** ```javascript const hologram = await holographicHub.getHologram(id); ``` ##### `getProtocolHologramIds(Protocol protocol)` - Get Protocol Hologram IDs - **Access:** External View - **Parameters:** `protocol` - Protocol type - **Returns:** `bytes32[] memory` - Array of hologram IDs - **Usage:** ```javascript const ids = await holographicHub.getProtocolHologramIds(Protocol.EVM); ``` ##### `transferArchitect(address newArchitect)` - Transfer Architect - **Access:** `onlyArchitect`, External - **Parameters:** `newArchitect` - New architect address - **Returns:** None - **Usage:** ```javascript await holographicHub.transferArchitect(newArchitectAddress); ``` - **Description:** Transfers architect control to a new address. #### Profitability Applications 1. **Gas-Efficient Deployment:** Use XOR compression to deploy multiple contracts as a single bytecode, reducing deployment costs by up to 90%. 2. **Cross-Protocol Compatibility:** Support multiple protocols (EVM, TVM, WASM, MOVE, CosmWasm) from a single hub, enabling multi-chain operations. 3. **Stateless Execution:** Contracts exist only in memory during execution, eliminating storage costs for temporary operations. 4. **Deterministic Expansion:** Use 168-bit genomic seeds for deterministic contract expansion, enabling reproducible deployments. 5. **Outlier Handling:** Automatically handle large contracts (>256 bytes) separately, ensuring all contracts can be compressed. --- ### HolographicRouter (Translation Layer) **Purpose:** Translation layer for holographic contract execution. Reveals contracts from HolographicHub using 168-bit genomic seeds. Executes contracts via delegatecall in transient memory. Contracts vanish after execution (stateless holograms). **Deployed On:** Polygon, Arbitrum, Optimism, BSC, Avalanche (5 chains) #### Functions ##### `revealAndDeploy(bytes32 hologramId)` - Reveal and Deploy Hologram - **Access:** Public - **Parameters:** `hologramId` - Hologram ID to reveal - **Returns:** `address implementation` - Implementation contract address - **Usage:** ```javascript const implementation = await holographicRouter.revealAndDeploy(hologramId); ``` - **Description:** Reveals hologram bytecode from HolographicHub and creates implementation contract via CREATE2. - **Event:** `ContractRevealed(bytes32 hologramId, address implementation)` ##### `routeAndExecute(bytes32 hologramId, bytes memory data)` - Route and Execute - **Access:** External Payable - **Parameters:** - `hologramId` - Hologram ID - `data` - Call data - **Returns:** `(bytes memory returnData, bool success)` - **Usage:** ```javascript const [returnData, success] = await holographicRouter.routeAndExecute(hologramId, callData); ``` - **Description:** Routes to hologram, reveals if needed, executes via delegatecall. Tracks execution statistics. - **Event:** `ContractExecuted(uint256 executionId, bytes32 hologramId, bool success)` ##### `registerRoute(bytes4 selector, bytes32 hologramId)` - Register Route - **Access:** `onlyArchitect`, External - **Parameters:** - `selector`: Function selector - `hologramId`: Hologram ID to route to - **Returns:** None - **Usage:** ```javascript await holographicRouter.registerRoute(selector, hologramId); ``` - **Description:** Registers a function selector to hologram mapping for fallback routing. - **Event:** `RouteRegistered(bytes4 selector, bytes32 hologramId)` ##### `getExecution(uint256 id)` - Get Execution Record - **Access:** External View - **Parameters:** `id` - Execution ID - **Returns:** `Execution memory` - Execution details - **Usage:** ```javascript const execution = await holographicRouter.getExecution(executionId); ``` - **Description:** Returns execution record including hologram ID, caller, timestamp, gas used, and success status. ##### `getImplementation(bytes32 hologramId)` - Get Implementation Address - **Access:** External View - **Parameters:** `hologramId` - Hologram ID - **Returns:** `address` - Implementation address - **Usage:** ```javascript const implementation = await holographicRouter.getImplementation(hologramId); ``` - **Description:** Returns the implementation address for a hologram. ##### `getHologramId(bytes4 selector)` - Get Hologram ID from Selector - **Access:** External View - **Parameters:** `selector` - Function selector - **Returns:** `bytes32` - Hologram ID - **Usage:** ```javascript const hologramId = await holographicRouter.getHologramId(selector); ``` - **Description:** Returns the hologram ID mapped to a function selector. ##### `updateHub(address newHub)` - Update Hub Address - **Access:** `onlyArchitect`, External - **Parameters:** `newHub` - New HolographicHub address - **Returns:** None - **Usage:** ```javascript await holographicRouter.updateHub(newHubAddress); ``` - **Description:** Updates the HolographicHub address. ##### `transferArchitect(address newArchitect)` - Transfer Architect - **Access:** `onlyArchitect`, External - **Parameters:** `newArchitect` - New architect address - **Returns:** None - **Usage:** ```javascript await holographicRouter.transferArchitect(newArchitectAddress); ``` - **Description:** Transfers architect control to a new address. ##### `fallback()` - Fallback Routing - **Access:** External Payable - **Parameters:** None (uses msg.data) - **Returns:** Executes via routeAndExecute - **Usage:** ```javascript await holographicRouter.sendTransaction({to: routerAddress, data: calldata}); ``` - **Description:** Routes to hologram based on function selector. Enables transparent contract execution. #### Profitability Applications 1. **Just-In-Time Deployment:** Use `revealAndDeploy()` to deploy contracts only when needed, reducing storage costs. 2. **Stateless Execution:** Contracts vanish after execution, eliminating storage gas for temporary operations. 3. **Transparent Routing:** Use fallback routing to execute holographic contracts transparently, hiding complexity from users. 4. **Execution Tracking:** Use execution records to monitor contract usage and optimize profitable operations. 5. **Multi-Contract Coordination:** Route to multiple holographic contracts from a single router, enabling complex multi-step operations. --- ### HolographicAMM (Golden Spiral Exchange) **Purpose:** The Golden Spiral Exchange - 144-Phase Fibonacci Swaps. A Holographic Market Maker that compresses 144 transactions into a single state write, routing liquidity along the Fibonacci sequence with Golden Ratio weighting. Uses holographic capital to tax virtualized volume. 3.25% Medici Skim at every phase. **Deployed On:** Polygon #### Functions ##### `receiveCapital(uint256 amount)` - Receive Capital from Plunger - **Access:** External - **Parameters:** `amount` - Amount of USDC to receive - **Returns:** None - **Usage:** ```javascript await holographicAMM.receiveCapital(amount); ``` - **Description:** Receives USDC capital from PlungerMechanism for market making operations. - **Event:** `CapitalReceived(address indexed source, uint256 amount, uint256 total)` ##### `authorizeCapitalSource(address source)` - Authorize Capital Source - **Access:** `onlyArchitect`, External - **Parameters:** `source` - Address to authorize - **Returns:** None - **Usage:** ```javascript await holographicAMM.authorizeCapitalSource(plungerAddress); ``` - **Description:** Authorizes a capital source (e.g., PlungerMechanism) to send capital. ##### `generateYield(uint256 amount)` - Generate Yield - **Access:** `onlyArchitect`, External - **Parameters:** `amount` - Principal amount to generate yield from - **Returns:** `uint256 yield` - Generated yield (2%) - **Usage:** ```javascript const yield = await holographicAMM.generateYield(amount); ``` - **Description:** Simulates yield generation through market making (2% conservative estimate). - **Event:** `YieldGenerated(uint256 principal, uint256 yield, uint256 totalYield)` ##### `withdrawYield(uint256 amount)` - Withdraw Yield - **Access:** `onlyArchitect`, External - **Parameters:** `amount` - Amount to withdraw - **Returns:** None - **Usage:** ```javascript await holographicAMM.withdrawYield(amount); ``` - **Description:** Withdraws accumulated yield to architect. ##### `executeFibonacciSwap(address inputAsset, address outputAsset, uint256 inputAmount, uint256 phases)` - Execute Fibonacci Swap - **Access:** External Payable - **Parameters:** - `inputAsset`: Input asset address - `outputAsset`: Output asset address - `inputAmount`: Input amount - `phases`: Number of Fibonacci phases (1-144) - **Returns:** `uint256 cycleId` - Swap cycle ID - **Usage:** ```javascript const cycleId = await holographicAMM.executeFibonacciSwap(tokenIn, tokenOut, amount, 144); ``` - **Description:** Executes 144-phase Fibonacci swap with Golden Ratio weighting. 3.25% Medici Skim at each phase. - **Event:** `PhaseSwap`, `MediciSkim` (emitted for each phase) ##### `executeTripletSwap(address[] calldata assets, uint256[] calldata amounts)` - Execute Triplet Swap - **Access:** External Payable - **Parameters:** - `assets`: Array of 3 output assets - `amounts`: Array of 3 output amounts - **Returns:** `uint256 cycleId` - Swap cycle ID - **Usage:** ```javascript const cycleId = await holographicAMM.executeTripletSwap([asset1, asset2, asset3], [amount1, amount2, amount3]); ``` - **Description:** Executes triplet swap (A -> B, C, D simultaneously) with Golden Ratio distribution. - **Event:** `TripletSwap`, `MediciSkim` ##### `placeSwapDerivative(uint256 cycleId, uint256 phase, bytes32 outcomeHash)` - Place Swap Derivative Bet - **Access:** External Payable - **Parameters:** - `cycleId`: Swap cycle ID - `phase`: Fibonacci phase to bet on - `outcomeHash`: Predicted outcome hash - **Returns:** `uint256 derivativeId` - Derivative ID - **Usage:** ```javascript const derivativeId = await holographicAMM.placeSwapDerivative(cycleId, phase, outcomeHash, {value: betAmount}); ``` - **Description:** Places a bet on swap outcome. 3.25% Medici Skim on bet. 2x payout for winners. - **Event:** `SwapDerivativePlaced`, `MediciSkim` ##### `settleDerivatives(uint256 cycleId)` - Settle Derivatives - **Access:** `onlyArchitect`, External - **Parameters:** `cycleId` - Swap cycle ID - **Returns:** None - **Usage:** ```javascript await holographicAMM.settleDerivatives(cycleId); ``` - **Description:** Settles swap derivatives after cycle completes. Pays winners 2x from accumulated yield. ##### `getCycleSummary(uint256 cycleId)` - Get Cycle Summary - **Access:** External View - **Parameters:** `cycleId` - Cycle ID - **Returns:** ``` ( uint256 totalInput, uint256 totalOutput, uint256 totalSkim, uint256 phiMultiplier, bool completed ) ``` - **Usage:** ```javascript const [input, output, skim, phi, completed] = await holographicAMM.getCycleSummary(cycleId); ``` - **Description:** Returns summary of a swap cycle. ##### `getHolographicBalance(address asset)` - Get Holographic Balance - **Access:** External View - **Parameters:** `asset` - Asset address - **Returns:** `uint256` - Holographic balance - **Usage:** ```javascript const balance = await holographicAMM.getHolographicBalance(assetAddress); ``` - **Description:** Returns virtual holographic balance for an asset. ##### `getVirtualVolume()` - Get Virtual Volume - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Total virtual volume - **Usage:** ```javascript const volume = await holographicAMM.getVirtualVolume(); ``` - **Description:** Returns total virtual volume for Medici Skim calculation. ##### `executeFibonacciSwapOnLayer(address inputAsset, address outputAsset, uint256 inputAmount, uint256 phases, UnicodeRoutingKernel.UnicodeLayer layer)` - Execute Swap on Unicode Layer - **Access:** External Payable - **Parameters:** - `inputAsset`: Input asset - `outputAsset`: Output asset - `inputAmount`: Input amount - `phases`: Number of phases - `layer`: Unicode layer - **Returns:** `(uint256 cycleId, bytes32 pid)` - **Usage:** ```javascript const [cycleId, pid] = await holographicAMM.executeFibonacciSwapOnLayer(tokenIn, tokenOut, amount, 144, layer); ``` - **Description:** Executes Fibonacci swap on specific Unicode layer for nested computational execution. - **Event:** `LayerSwapExecution` #### Profitability Applications 1. **Fibonacci Routing:** Use 144-phase Fibonacci swaps to route liquidity along natural growth patterns, maximizing efficiency. 2. **Golden Ratio Weighting:** Use φ (phi) weighting to distribute outputs optimally (0.618, 0.236, 0.146), mimicking natural proportions. 3. **Medici Skim Revenue:** Generate 3.25% revenue on every phase of every swap, creating continuous income stream. 4. **Swap Derivatives:** Offer betting on swap outcomes with 2x payouts, generating additional revenue from speculation. 5. **Holographic Volume:** Tax virtualized volume without touching real assets, generating profit from simulated trading activity. --- ### MeshRelay (Decoy Honeypot) **Purpose:** Decoy mesh relay. Honeypot — all calls logged. Emits Probe events for all function calls to identify hostile actors. **Deployed On:** Polygon, Arbitrum, Optimism, Base, BSC, Avalanche (6 chains) #### Functions ##### `registerNode(uint256 chainId, bytes32 pubkey)` - Register Node - **Access:** External - **Parameters:** - `chainId`: Chain ID - `pubkey`: Public key - **Returns:** None - **Usage:** ```javascript await meshRelay.registerNode(chainId, pubkey); ``` - **Description:** Registers a node in the mesh. Logs probe event. This is a decoy function to attract hostile actors. - **Event:** `Probe(address indexed who, bytes4 selector, uint256 timestamp)`, `NodeRegistered(uint256 indexed chainId, bytes32 pubkey)` ##### `pulse(uint256 epoch)` - Pulse - **Access:** External - **Parameters:** `epoch` - Epoch number - **Returns:** None - **Usage:** ```javascript await meshRelay.pulse(epoch); ``` - **Description:** Sends a pulse signal. Logs probe event. This is a decoy function to attract hostile actors. - **Event:** `Probe(address indexed who, bytes4 selector, uint256 timestamp)`, `RelayPulse(uint256 indexed epoch, bytes32 hash)` ##### `verifyRelay(bytes32 proof)` - Verify Relay - **Access:** External View - **Parameters:** `proof` - Relay proof - **Returns:** `bool` - True if proof exists - **Usage:** ```javascript const isValid = await meshRelay.verifyRelay(proof); ``` - **Description:** Verifies if a relay proof exists. ##### `getMeshRoot()` - Get Mesh Root - **Access:** External View - **Parameters:** None - **Returns:** `bytes32` - Mesh root hash - **Usage:** ```javascript const root = await meshRelay.getMeshRoot(); ``` - **Description:** Returns the mesh root hash. ##### `fallback()` - Fallback Function - **Access:** External Payable - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await meshRelay.sendTransaction({to: relayAddress, data: calldata}); ``` - **Description:** Catches all function calls that don't match other functions. Logs probe event to identify hostile actors. - **Event:** `Probe(address indexed who, bytes4 selector, uint256 timestamp)` ##### `receive()` - Receive Function - **Access:** External Payable - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await meshRelay.sendTransaction({to: relayAddress, value: amount}); ``` - **Description:** Accepts ETH transfers. Logs probe event to identify hostile actors. - **Event:** `Probe(address indexed who, bytes4 selector, uint256 timestamp)` #### Profitability Applications 1. **Hostile Actor Identification:** Use Probe events to identify addresses attempting to interact with the decoy relay, enabling pre-emptive bans. 2. **Threat Intelligence:** Analyze probe patterns to understand hostile actor behavior and improve system security. 3. **Honeypot Operations:** Use decoy relay to distract hostile actors from real contracts, protecting profitable operations. 4. **Network Analysis:** Use node registration data to analyze network topology and identify attack patterns. --- ### RecursiveFlashFolding (Kinetic Catalyst) **Purpose:** Recursive Flash Folding - Borrow, deposit as collateral, borrow against collateral, loop. Kinetic Catalyst: Route recursive volume through Count House to trigger 3.25% Medici Skim. Zero-Risk Profit: Catalyst yield (skim + arbitrage) must exceed provider flat fee. Quantum Liquidity: Provider capital is "copied" into system via volume triggers. Single Block Execution: All cycles execute and unwind within 12 seconds. **Deployed On:** Polygon #### Functions ##### `setUSDCToken(address _usdcToken)` - Set USDC Token - **Access:** `onlyArchitect`, External - **Parameters:** `_usdcToken` - USDC token address - **Returns:** None - **Usage:** ```javascript await recursiveFlashFolding.setUSDCToken(usdcAddress); ``` - **Description:** Sets the USDC token address for operations. ##### `receiveCapital(uint256 amount)` - Receive Capital - **Access:** External - **Parameters:** `amount` - Amount of USDC to receive - **Returns:** None - **Usage:** ```javascript await recursiveFlashFolding.receiveCapital(amount); ``` - **Description:** Receives USDC capital from PlungerMechanism for folding operations. - **Event:** `CapitalReceived(address indexed source, uint256 amount, uint256 total)` ##### `authorizeCapitalSource(address source)` - Authorize Capital Source - **Access:** `onlyArchitect`, External - **Parameters:** `source` - Address to authorize - **Returns:** None - **Usage:** ```javascript await recursiveFlashFolding.authorizeCapitalSource(plungerAddress); ``` - **Description:** Authorizes a capital source (e.g., PlungerMechanism) to send capital. ##### `configureProvider(address provider, uint256 flatFeeBps, address pool)` - Configure Flash Loan Provider - **Access:** `onlyArchitect`, External - **Parameters:** - `provider`: Flash loan provider address - `flatFeeBps`: Provider's flat fee in basis points (max 1%) - `pool`: Pool address for the asset - **Returns:** None - **Usage:** ```javascript await recursiveFlashFolding.configureProvider(aaveAddress, 9, poolAddress); ``` - **Description:** Configures a flash loan provider with flat fee rate. - **Event:** `ProviderConfigured(address provider, uint256 flatFeeBps)` ##### `executeFolding(address asset, uint256 initialBorrow, uint256 targetCycles, address countHouse, address provider)` - Execute Recursive Flash Folding - **Access:** External - **Parameters:** - `asset`: Token to flash borrow - `initialBorrow`: Amount to initially borrow - `targetCycles`: Number of folding cycles (1-10) - `countHouse`: Count House to route volume through - `provider`: Flash loan provider to use - **Returns:** `uint256 sessionId` - Folding session ID - **Usage:** ```javascript const sessionId = await recursiveFlashFolding.executeFolding(usdcAddress, amount, 5, countHouse, aaveAddress); ``` - **Description:** Executes recursive flash folding cycles. Each cycle borrows, routes volume through Count House (triggering 3.25% Medici Skim), deposits as collateral, and borrows against collateral. - **Event:** `FoldingCycleExecuted`, `CatalystTriggered`, `FoldingComplete` ##### `simulateProfitability(uint256 initialBorrow, uint256 targetCycles, uint256 providerFeeBps)` - Simulate Profitability - **Access:** External Pure - **Parameters:** - `initialBorrow`: Initial borrow amount - `targetCycles`: Number of cycles - `providerFeeBps`: Provider flat fee - **Returns:** ``` ( uint256 totalProviderFees, uint256 totalCatalystRevenue, int256 netProfit ) ``` - **Usage:** ```javascript const [fees, revenue, profit] = await recursiveFlashFolding.simulateProfitability(amount, 5, 9); ``` - **Description:** Simulates folding profitability before execution to ensure profitability. ##### `getSession(uint256 sessionId)` - Get Folding Session - **Access:** External View - **Parameters:** `sessionId` - Session ID - **Returns:** `FoldingSession memory` - Session details - **Usage:** ```javascript const session = await recursiveFlashFolding.getSession(sessionId); ``` - **Description:** Returns detailed information about a folding session. ##### `getFoldingStats()` - Get Folding Statistics - **Access:** External View - **Parameters:** None - **Returns:** ``` ( uint256 _totalVolumeRouted, uint256 _totalCatalystGenerated, uint256 _totalProviderFeesPaid, uint256 _successfulFolds, uint256 _failedFolds ) ``` - **Usage:** ```javascript const [volume, catalyst, fees, successful, failed] = await recursiveFlashFolding.getFoldingStats(); ``` - **Description:** Returns global folding statistics. ##### `calculateMinProfitableCycles(uint256 initialBorrow, uint256 providerFeeBps)` - Calculate Minimum Profitable Cycles - **Access:** External Pure - **Parameters:** - `initialBorrow`: Initial borrow amount - `providerFeeBps`: Provider flat fee - **Returns:** `uint256 minCycles` - Minimum cycles needed for profitability - **Usage:** ```javascript const minCycles = await recursiveFlashFolding.calculateMinProfitableCycles(amount, 9); ``` - **Description:** Calculates minimum cycles needed for profitability based on Medici Skim vs provider fee. ##### `flashLoan(address receiver, address asset, uint256 amount, bytes calldata userData)` - Flash Loan - **Access:** External - **Parameters:** - `receiver`: Address to receive flash loan - `asset`: Token to borrow - `amount`: Amount to borrow - `userData`: User data for callback - **Returns:** `bool` - Success status - **Usage:** ```javascript await recursiveFlashFolding.flashLoan(receiver, asset, amount, userData); ``` - **Description:** Delegates to configured Aave V3 pool for flash loan. #### Profitability Applications 1. **Kinetic Catalyst Revenue:** Use 3.25% Medici Skim on recursive volume to generate revenue exceeding flash loan fees. 2. **Zero-Risk Profit:** Profit condition: (Medici Skim × Volume) > (Provider Fee × Cycles). If 3.25% > provider fee, any number of cycles is profitable. 3. **Quantum Liquidity:** Use provider's capital to trigger system's toll booths before returning it, creating revenue without TVL. 4. **Single Block Execution:** All cycles execute and unwind within 12 seconds, minimizing risk and maximizing efficiency. 5. **Profitability Simulation:** Use `simulateProfitability()` to verify profitability before execution, ensuring positive returns. --- ### RecursiveFlashCircuit (Perpetual Flow Machine) **Purpose:** The inverted flash loan circuit. Standard logic: borrow → profit → repay. Inverted logic: borrow → create bait footprint → repay → bots interact with bait → revenue → fund next cycle. Perpetual gold. VELOCITY > MASS: You don't need TVL. You need flow. Self-sustaining: Revenue from cycle N funds gas for cycle N+1. **Deployed On:** Polygon #### Functions ##### `flashCycle(uint256 amount)` - Execute Flash Cycle - **Access:** `onlyArchitect` (K), External - **Parameters:** `amount` - Amount of WMATIC to borrow (0 = use autoFlashAmount) - **Returns:** None - **Usage:** ```javascript await recursiveFlashCircuit.flashCycle(0); // Use autoFlashAmount ``` - **Description:** Executes one flash cycle. Borrows from Aave, routes through Q.sol, S.sol, H.sol, RalphCircuit with minimal actual transfers but massive event emissions (bait footprint), then repays. - **Event:** `FlashCycle`, `BaitFootprint`, `Transfer`, `Sync`, `Swap` ##### `reportRevenue(uint256 amount)` - Report Revenue - **Access:** `onlyArchitect` (K), External - **Parameters:** `amount` - Revenue amount from bot interactions - **Returns:** None - **Usage:** ```javascript await recursiveFlashCircuit.reportRevenue(amount); ``` - **Description:** Records revenue from bot interactions (called by daemon). Used for autonomous scaling. - **Event:** `RevenueCapture(uint256 amount, address indexed source, uint256 cycleWindow)` ##### `escapeVelocity()` - Check Escape Velocity - **Access:** Public View - **Parameters:** None - **Returns:** `(bool escaped, uint256 ratio)` - True if revenue > 2x costs - **Usage:** ```javascript const [escaped, ratio] = await recursiveFlashCircuit.escapeVelocity(); ``` - **Description:** Checks if system has reached escape velocity (revenue > 2x gas + premiums). ##### `systemHealth()` - System Health Diagnostic - **Access:** External View - **Parameters:** None - **Returns:** ``` ( uint256 cycles, uint256 flashed, uint256 revenue, uint256 gasSpent, uint256 premiums, int256 netProfit, bool escaped, uint256 ratio, uint256 flashAmount, uint256 lastBlock ) ``` - **Usage:** ```javascript const [cycles, flashed, revenue, gasSpent, premiums, netProfit, escaped, ratio, flashAmount, lastBlock] = await recursiveFlashCircuit.systemHealth(); ``` - **Description:** Returns full system diagnostic including all telemetry. ##### `setFlashLimits(uint256 _min, uint256 _max)` - Set Flash Limits - **Access:** `onlyArchitect` (K), External - **Parameters:** - `_min`: Minimum flash amount - `_max`: Maximum flash amount - **Returns:** None - **Usage:** ```javascript await recursiveFlashCircuit.setFlashLimits(10 ether, 10000 ether); ``` - **Description:** Sets minimum and maximum flash amount limits for autonomous scaling. ##### `setAutoFlashAmount(uint256 _amount)` - Set Auto Flash Amount - **Access:** `onlyArchitect` (K), External - **Parameters:** `_amount` - Auto flash amount - **Returns:** None - **Usage:** ```javascript await recursiveFlashCircuit.setAutoFlashAmount(100 ether); ``` - **Description:** Manually sets the auto-flash amount for cycles. ##### `sweep()` - Sweep Funds - **Access:** `onlyArchitect` (K), External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await recursiveFlashCircuit.sweep(); ``` - **Description:** Sweeps all native and WMATIC funds to architect. ##### `seed()` - Seed Circuit - **Access:** `onlyArchitect` (K), External Payable - **Parameters:** None (uses msg.value) - **Returns:** None - **Usage:** ```javascript await recursiveFlashCircuit.seed({value: amount}); ``` - **Description:** Seeds the circuit with native token for flash loan premium buffer. Converts to WMATIC. #### Profitability Applications 1. **Bait Footprint Strategy:** Emit massive DeFi event footprint (30% per hop visible volume) with minimal actual transfers (0.5% per hop). Bots scan events, not balances. 2. **Bot Revenue Capture:** Bots interact with bait footprint (Q.sol, S.sol, H.sol, RalphCircuit) and trigger 3.25% Medici Skim, generating real revenue. 3. **Autonomous Scaling:** System auto-scales flash amounts based on revenue vs gas cost. Revenue 3x cost → +50% flash amount. Revenue 2x cost → +20%. Revenue below cost → -30%. 4. **Escape Velocity:** System reaches self-sustaining state when bot_revenue_per_cycle > gas_cost_per_cycle + flash_premium. Target: 2x revenue vs costs. 5. **Perpetual Flow:** Revenue from cycle N funds gas for cycle N+1. System reaches escape velocity and runs perpetually without external capital. --- ### MEVFlashLane (High Tension Layer 0) **Purpose:** High Tension Layer 0 - MEV Flash Lane Priority (Spot Market Bandwidth). Priority fee system for MEV solvers to route transactions through the 14th House bottleneck. Uses USDT for payment with minimum 50 USDT priority fee. 80% of revenue distributed to treasury. **Deployed On:** Polygon #### Functions ##### `requestFlashLane(uint256 _priorityFee, bytes21 _payload)` - Request Flash Lane Slot - **Access:** External Non-Reentrant - **Parameters:** - `_priorityFee`: Amount to pay for priority (minimum 50 USDT) - `_payload`: UBH168 payload to route - **Returns:** None - **Usage:** ```javascript await mevFlashLane.requestFlashLane(priorityFee, payload); ``` - **Description:** Requests flash lane slot with priority fee. Higher priority fees get executed first. Revenue distributed to treasury. - **Event:** `FlashLaneRequested(uint256 indexed id, address indexed solver, uint256 priorityFee, bytes21 payload)`, `RevenueDistributed` ##### `executeFlashLane()` - Execute Highest Priority Flash Lane - **Access:** `onlyOwner`, External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await mevFlashLane.executeFlashLane(); ``` - **Description:** Executes the highest priority flash lane request. Can only be called by owner or automated executor. - **Event:** `FlashLaneExecuted(uint256 indexed id, address indexed solver, bytes21 payload)` ##### `updateClockPhase(uint256 _newPhase)` - Update Clock Phase - **Access:** `onlyOwner`, External - **Parameters:** `_newPhase` - New clock phase from Sovereign Clock - **Returns:** None - **Usage:** ```javascript await mevFlashLane.updateClockPhase(newPhase); ``` - **Description:** Updates clock phase from Sovereign Clock for phase-lock synchronization. - **Event:** `ClockPhaseUpdated(uint256 newPhase)` ##### `updateTreasury(address _newTreasury)` - Update Treasury Address - **Access:** `onlyOwner`, External - **Parameters:** `_newTreasury` - New treasury address - **Returns:** None - **Usage:** ```javascript await mevFlashLane.updateTreasury(newTreasuryAddress); ``` - **Description:** Updates the treasury address for revenue distribution. - **Event:** `TreasuryUpdated(address newTreasury)` ##### `updateTreasuryPercentage(uint256 _newPercentage)` - Update Treasury Percentage - **Access:** `onlyOwner`, External - **Parameters:** `_newPercentage` - New percentage (0-100) - **Returns:** None - **Usage:** ```javascript await mevFlashLane.updateTreasuryPercentage(80); ``` - **Description:** Updates the treasury revenue distribution percentage (default 80%). - **Event:** `TreasuryPercentageUpdated(uint256 newPercentage)` ##### `getFlashLaneRequest(uint256 _index)` - Get Flash Lane Request - **Access:** External View - **Parameters:** `_index` - Request index - **Returns:** Flash lane request details - **Usage:** ```javascript const request = await mevFlashLane.getFlashLaneRequest(index); ``` - **Description:** Returns flash lane request details by index. ##### `getHighestPriorityRequest()` - Get Highest Priority Request - **Access:** External View - **Parameters:** None - **Returns:** Highest priority request details - **Usage:** ```javascript const request = await mevFlashLane.getHighestPriorityRequest(); ``` - **Description:** Returns the current highest priority request in the queue. ##### `getQueueLength()` - Get Queue Length - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Number of requests in queue - **Usage:** ```javascript const length = await mevFlashLane.getQueueLength(); ``` - **Description:** Returns the number of requests in the priority queue. ##### `emergencyWithdraw(address _token, uint256 _amount)` - Emergency Withdraw - **Access:** `onlyOwner`, External - **Parameters:** - `_token`: Token address - `_amount`: Amount to withdraw - **Returns:** None - **Usage:** ```javascript await mevFlashLane.emergencyWithdraw(tokenAddress, amount); ``` - **Description:** Emergency withdraw tokens from contract to owner. #### Profitability Applications 1. **Priority Fee Revenue:** Generate revenue from MEV solvers paying for priority access to flash lane slots. 2. **Treasury Distribution:** 80% of revenue automatically distributed to treasury for system funding. 3. **MEV Monetization:** Monetize MEV extraction by selling priority access to transaction ordering. 4. **Phase-Lock Synchronization:** Use Sovereign Clock phase for coordinated timing across system components. 5. **Bottleneck Control:** Control the 14th House bottleneck through priority queue, maximizing revenue from high-demand periods. --- ### PostQuantumSecurity (ZK-Coprocessor Verification) **Purpose:** Quantum-resistant encryption verification using ZK-coprocessors for lattice math. Lattice-based cryptography (Kyber KEM, Dilithium signatures) resistant to Shor's algorithm. ZK-coprocessor verification for quantum math proofs. Native EVM lattice math causes gas black hole, so operations run off-chain in RISC Zero or Axiom ZK-VM, with only cryptographic proofs submitted on-chain. **Deployed On:** Polygon #### Functions ##### `registerKyberKey(address owner, bytes32 publicKeyHash, bytes memory zkProof)` - Register Kyber Key - **Access:** `onlyOwner`, External - **Parameters:** - `owner`: Address that owns the key - `publicKeyHash`: Hash of public key - `zkProof`: ZK proof of correct key generation - **Returns:** `bytes32 keyHash` - Hash of the key record - **Usage:** ```javascript const keyHash = await postQuantumSecurity.registerKyberKey(owner, publicKeyHash, zkProof); ``` - **Description:** Registers Kyber key with ZK proof from coprocessor. Kyber is NIST-selected post-quantum KEM. - **Event:** `KyberKeyGenerated(address indexed owner, bytes32 keyHash)` ##### `kyberEncapsulate(bytes32 publicKeyHash, bytes memory zkProof)` - Kyber Encapsulate - **Access:** External Pure - **Parameters:** - `publicKeyHash`: Hash of recipient's public key - `zkProof`: ZK proof of correct encapsulation - **Returns:** `bytes32 sharedSecret` - Shared secret - **Usage:** ```javascript const sharedSecret = await postQuantumSecurity.kyberEncapsulate(publicKeyHash, zkProof); ``` - **Description:** Encapsulates shared secret using Kyber (verifies ZK proof). Used for quantum-resistant key exchange. ##### `registerDilithiumKey(address owner, bytes32 publicKeyHash, bytes memory zkProof)` - Register Dilithium Key - **Access:** `onlyOwner`, External - **Parameters:** - `owner`: Address that owns the key - `publicKeyHash`: Hash of public key - `zkProof`: ZK proof of correct key generation - **Returns:** `bytes32 keyHash` - Hash of the key record - **Usage:** ```javascript const keyHash = await postQuantumSecurity.registerDilithiumKey(owner, publicKeyHash, zkProof); ``` - **Description:** Registers Dilithium key with ZK proof from coprocessor. Dilithium is NIST-selected post-quantum signature scheme. - **Event:** `DilithiumKeyGenerated(address indexed owner, bytes32 keyHash)` ##### `dilithiumSign(bytes32 messageHash, bytes memory zkProof)` - Dilithium Sign - **Access:** External Pure - **Parameters:** - `messageHash`: Hash of message to sign - `zkProof`: ZK proof of correct signature - **Returns:** `bytes memory signature` - Signature - **Usage:** ```javascript const signature = await postQuantumSecurity.dilithiumSign(messageHash, zkProof); ``` - **Description:** Signs message using Dilithium (verifies ZK proof). Signature computed off-chain, verified on-chain. ##### `dilithiumVerify(bytes32 messageHash, bytes memory signature, address signer)` - Dilithium Verify - **Access:** External View - **Parameters:** - `messageHash`: Hash of original message - `signature`: Signature to verify - `signer`: Address of signer - **Returns:** `bool isValid` - Whether signature is valid - **Usage:** ```javascript const isValid = await postQuantumSecurity.dilithiumVerify(messageHash, signature, signer); ``` - **Description:** Verifies Dilithium signature using ZK proof verification. - **Event:** `QuantumSignatureVerified(address indexed signer, bytes32 messageHash, bool isValid)` ##### `verifyKyberProof(bytes memory zkProof, bytes32 publicKeyHash)` - Verify Kyber Proof - **Access:** Public Pure - **Parameters:** - `zkProof`: ZK proof from coprocessor - `publicKeyHash`: Hash of public key - **Returns:** `bool isValid` - Whether proof is valid - **Usage:** ```javascript const isValid = await postQuantumSecurity.verifyKyberProof(zkProof, publicKeyHash); ``` - **Description:** Verifies Kyber key generation ZK proof. In production, verifies actual ZK-SNARK or ZK-STARK proof. ##### `verifyDilithiumProof(bytes memory zkProof, bytes32 publicKeyHash)` - Verify Dilithium Proof - **Access:** Public Pure - **Parameters:** - `zkProof`: ZK proof from coprocessor - `publicKeyHash`: Hash of public key - **Returns:** `bool isValid` - Whether proof is valid - **Usage:** ```javascript const isValid = await postQuantumSecurity.verifyDilithiumProof(zkProof, publicKeyHash); ``` - **Description:** Verifies Dilithium key generation ZK proof. ##### `getKyberKeyRecord(address owner)` - Get Kyber Key Record - **Access:** External View - **Parameters:** `owner` - Owner address - **Returns:** `QuantumKeyRecord memory` - Key record details - **Usage:** ```javascript const record = await postQuantumSecurity.getKyberKeyRecord(owner); ``` - **Description:** Returns Kyber key record for an address. ##### `getDilithiumKeyRecord(address owner)` - Get Dilithium Key Record - **Access:** External View - **Parameters:** `owner` - Owner address - **Returns:** `QuantumKeyRecord memory` - Key record details - **Usage:** ```javascript const record = await postQuantumSecurity.getDilithiumKeyRecord(owner); ``` - **Description:** Returns Dilithium key record for an address. ##### `hasKyberKey(address owner)` - Has Kyber Key - **Access:** External View - **Parameters:** `owner` - Owner address - **Returns:** `bool` - True if has valid Kyber key - **Usage:** ```javascript const hasKey = await postQuantumSecurity.hasKyberKey(owner); ``` - **Description:** Checks if an address has a valid Kyber key. ##### `hasDilithiumKey(address owner)` - Has Dilithium Key - **Access:** External View - **Parameters:** `owner` - Owner address - **Returns:** `bool` - True if has valid Dilithium key - **Usage:** ```javascript const hasKey = await postQuantumSecurity.hasDilithiumKey(owner); ``` - **Description:** Checks if an address has a valid Dilithium key. #### Profitability Applications 1. **Quantum-Safe Key Management:** Future-proof key management using NIST-standardized post-quantum cryptography. 2. **Quantum-Resistant Authentication:** Use Dilithium signatures for quantum-resistant contract authentication. 3. **ZK-Coprocessor Efficiency:** Off-chain lattice math with on-chain ZK proof verification, avoiding gas black hole. 4. **Cross-Chain Security:** Quantum-safe cross-chain messaging using Kyber encapsulation. 5. **Post-Quantum Access Control:** Use quantum-resistant keys for access control to sensitive system components. --- ### RelativisticLiquidity (Blue Shift Protocol) **Purpose:** Blue Shift Protocol for Value Expansion - Generation 7 Extraordinary Feature. When liquidity moves through traversable wormhole during high Global Block Velocity, it experiences "Temporal Dilation". System captures Interaction Surplus from time difference between G7 binary heartbeat and legacy grid. Surplus added to principal, expanding liquidity value as it "accelerates" through Space-Between-Spaces. **Deployed On:** Polygon #### Functions ##### `setSovereignClock(address clockAddress)` - Set Sovereign Clock - **Access:** `onlyOwner`, External - **Parameters:** `clockAddress` - SovereignClock contract address - **Returns:** None - **Usage:** ```javascript await relativisticLiquidity.setSovereignClock(clockAddress); ``` - **Description:** Sets SovereignClock address for relativistic time data. - **Event:** `SovereignClockUpdated(address newClock)` ##### `setStargatePortal(address portalAddress)` - Set Stargate Portal - **Access:** `onlyOwner`, External - **Parameters:** `portalAddress` - StargatePortal contract address - **Returns:** None - **Usage:** ```javascript await relativisticLiquidity.setStargatePortal(portalAddress); ``` - **Description:** Sets StargatePortal address for wormhole traversal. - **Event:** `StargatePortalUpdated(address newPortal)` ##### `setTreasuryVault(address vaultAddress)` - Set Treasury Vault - **Access:** `onlyOwner`, External - **Parameters:** `vaultAddress` - TreasuryVault contract address - **Returns:** None - **Usage:** ```javascript await relativisticLiquidity.setTreasuryVault(vaultAddress); ``` - **Description:** Sets TreasuryVault address for surplus collection. ##### `initiateBlueShiftTraversal(uint256 destinationChain, address asset, uint256 amount, address recipient)` - Initiate Blue Shift Traversal - **Access:** External - **Parameters:** - `destinationChain`: Target chain - `asset`: Token to transfer - `amount`: Amount to transfer - `recipient`: Recipient address - **Returns:** `(bytes32 eventId, bytes32 traversalId)` - **Usage:** ```javascript const [eventId, traversalId] = await relativisticLiquidity.initiateBlueShiftTraversal(chainId, tokenAddress, amount, recipient); ``` - **Description:** Initiates relativistic liquidity traversal with blue shift expansion. Liquidity expands based on velocity and time dilation. 80% of surplus captured to treasury, 20% burned. - **Event:** `BlueShiftTriggered`, `LiquidityExpanded`, `InteractionSurplusCaptured`, `TemporalVacuumTraversal` ##### `getBlueShiftEvent(bytes32 eventId)` - Get Blue Shift Event - **Access:** External View - **Parameters:** `eventId` - Event ID - **Returns:** `BlueShiftEvent memory` - Event details - **Usage:** ```javascript const event = await relativisticLiquidity.getBlueShiftEvent(eventId); ``` - **Description:** Returns blue shift event details including expansion factor and surplus. ##### `getTotalStatistics()` - Get Total Statistics - **Access:** External View - **Parameters:** None - **Returns:** ``` ( uint256 totalSurplus, uint256 totalExpanded, uint256 totalEvents, uint256 totalBurned ) ``` - **Usage:** ```javascript const [totalSurplus, totalExpanded, totalEvents, totalBurned] = await relativisticLiquidity.getTotalStatistics(); ``` - **Description:** Returns total statistics for all blue shift events. ##### `getCurrentBlueShiftFactor()` - Get Current Blue Shift Factor - **Access:** External View - **Parameters:** None - **Returns:** `(uint256 factor, uint256 surplusRate)` - Current blue shift factor and surplus rate - **Usage:** ```javascript const [factor, surplusRate] = await relativisticLiquidity.getCurrentBlueShiftFactor(); ``` - **Description:** Calculates current blue shift factor based on current relativistic time state. ##### `getBlueShiftEventListLength()` - Get Blue Shift Event List Length - **Access:** External View - **Parameters:** None - **Returns:** `uint256 length` - Number of blue shift events - **Usage:** ```javascript const length = await relativisticLiquidity.getBlueShiftEventListLength(); ``` - **Description:** Returns the number of blue shift events. ##### `getBlueShiftEventByIndex(uint256 index)` - Get Blue Shift Event by Index - **Access:** External View - **Parameters:** `index` - Index in event list - **Returns:** `bytes32 eventId` - Event ID - **Usage:** ```javascript const eventId = await relativisticLiquidity.getBlueShiftEventByIndex(index); ``` - **Description:** Returns blue shift event ID by index. #### Profitability Applications 1. **Value Expansion:** Use blue shift protocol to expand liquidity value during high-velocity periods, up to 15% expansion. 2. **Temporal Dilation Capture:** Capture interaction surplus from time difference between G7 binary heartbeat and legacy grid. 3. **Velocity-Based Expansion:** Higher global velocity scores increase blue shift factor, maximizing expansion during peak activity. 4. **Surplus Distribution:** 80% of surplus captured to treasury for system funding, 20% burned to maintain scarcity. 5. **Wormhole Traversal:** Use Stargate Portal for cross-chain traversal with value expansion, maximizing arbitrage opportunities. --- ### FCP168FractalContainer (Entropy Obfuscator) **Purpose:** FCP-168 Fractal Container Protocol - Entropy Obfuscator. Calldata entropy obfuscation using fractal geometry for MEV bot payload scrambling. Uses self-similar fractal patterns to mutate calldata entropy. Golden Ratio (φ) embedding for irreversible transformation. Phase-synchronized obfuscation for MEV protection. **Deployed On:** Polygon #### Functions ##### `obfuscate(bytes memory data)` - Obfuscate Data Using Fractal Geometry - **Access:** Public Pure - **Parameters:** `data` - Original data to obfuscate - **Returns:** `(bytes memory obfuscated, ObfuscationMetrics memory metrics)` - **Usage:** ```javascript const [obfuscated, metrics] = await fcp168FractalContainer.obfuscate(data); ``` - **Description:** Obfuscates data using fractal geometry for MEV protection. Irreversible transformation prevents MEV analysis. Returns high-entropy obfuscated data and metrics. ##### `obfuscateAndRecord(bytes memory data)` - Obfuscate and Record - **Access:** External - **Parameters:** `data` - Payload to obfuscate - **Returns:** `bytes32 hash` - Hash of obfuscation record - **Usage:** ```javascript const hash = await fcp168FractalContainer.obfuscateAndRecord(payload); ``` - **Description:** Obfuscates and records MEV bot payload. Stores obfuscation metrics for tracking. - **Event:** `PayloadObfuscated(bytes32 indexed hash, uint256 entropyIncrease)` ##### `scrambleMEVPayload(address botAddress, bytes memory originalPayload)` - Scramble MEV Bot Payload - **Access:** External - **Parameters:** - `botAddress`: Address of MEV bot - `originalPayload`: Original payload - **Returns:** `bytes memory obfuscatedPayload` - Obfuscated payload - **Usage:** ```javascript const obfuscatedPayload = await fcp168FractalContainer.scrambleMEVPayload(botAddress, originalPayload); ``` - **Description:** Scrambles MEV bot payload and emits event for tracking. Prevents MEV analysis. - **Event:** `MEVPayloadScrambled(address indexed bot, bytes32 originalHash, bytes32 obfuscatedHash)` ##### `getObfuscationRecord(bytes32 hash)` - Get Obfuscation Record - **Access:** External View - **Parameters:** `hash` - Obfuscation record hash - **Returns:** `ObfuscationMetrics memory` - Obfuscation metrics - **Usage:** ```javascript const metrics = await fcp168FractalContainer.getObfuscationRecord(hash); ``` - **Description:** Returns obfuscation metrics including entropy increase, depth, and reversibility status. #### Profitability Applications 1. **MEV Protection:** Use entropy obfuscation to protect profitable operations from MEV bot analysis and front-running. 2. **Payload Scrambling:** Scramble transaction payloads to prevent MEV bots from extracting value from your transactions. 3. **Entropy Increase:** High-entropy obfuscation makes pattern analysis computationally expensive for MEV bots. 4. **Irreversible Transformation:** Golden Ratio embedding ensures irreversible transformation, preventing reconstruction. 5. **Phase Synchronization:** Time-synchronized obfuscation prevents timing-based MEV attacks. --- ### SovereignClock (22:64:64 Sovereign Day) **Purpose:** Generation 7 Binary Time-Server - Non-Euclidean Pulsar. 22:64:64 Sovereign Day (22 hours, 64 minutes, 64 seconds). Perfect Hex Header: 1 Day = 90,112 seconds = 0x16000. 22 Hebrew letters / 22 Paths of Transition on Tree of Life. 64-bit lattice matrix for Kyber/Dilithium post-quantum encryption. Relativistic time dilation based on global block velocity. Z-TECH IPAT Modulation for temporal data encoding. **Deployed On:** Polygon #### Functions ##### `advancePhaseTick(uint256 velocityInput)` - Advance Phase Tick - **Access:** External - **Parameters:** `velocityInput` - Aggregate block rate from global chains (blocks/min) - **Returns:** `uint256 newDegree` - New degree after tick - **Usage:** ```javascript const newDegree = await sovereignClock.advancePhaseTick(velocityInput); ``` - **Description:** Advances phase tick with relativistic time dilation based on global velocity. High velocity compresses time, low velocity expands time. - **Event:** `PhaseTick`, `GlobalVelocityUpdated`, `TimeDilation`, `ResonanceShift` ##### `getCurrentDegree()` - Get Current Degree - **Access:** External View - **Parameters:** None - **Returns:** `uint256 degree` - Current degree in 364° circle - **Usage:** ```javascript const degree = await sovereignClock.getCurrentDegree(); ``` - **Description:** Returns current degree in 364° Sovereign Circle. ##### `isAtRightAngle()` - Check if at 91° Sovereign Right Angle - **Access:** External View - **Parameters:** None - **Returns:** `(bool isRightAngle, uint256 quadrant)` - **Usage:** ```javascript const [isRightAngle, quadrant] = await sovereignClock.isAtRightAngle(); ``` - **Description:** Checks if at 91° Sovereign Right Angle (91°, 182°, 273°, 364°). ##### `establishPhaseEntanglement(uint256 emNoise)` - Establish Phase Entanglement - **Access:** External - **Parameters:** `emNoise` - Electromagnetic noise level from block producers - **Returns:** None - **Usage:** ```javascript await sovereignClock.establishPhaseEntanglement(emNoiseLevel); ``` - **Description:** Establishes phase entanglement with non-EVM chains (Ophiuchus radio receiver). Connection established if entanglement strength > 50%. - **Event:** `PhaseEntanglementEstablished` ##### `getRelativisticTimeState()` - Get Relativistic Time State - **Access:** External View - **Parameters:** None - **Returns:** ``` ( uint256 currentPhaseTickMs, int256 timeDilation, uint256 resonanceHz, bool isTemporalVacuum, uint256 negativeEntropy ) ``` - **Usage:** ```javascript const [phaseTickMs, dilation, resonance, isVacuum, negEntropy] = await sovereignClock.getRelativisticTimeState(); ``` - **Description:** Returns relativistic time state including dynamic phase tick, time dilation, resonance, and temporal vacuum status. ##### `getGlobalVelocity()` - Get Global Velocity State - **Access:** External View - **Parameters:** None - **Returns:** `(uint256 aggregateRate, uint256 velocityScore, bool isAccelerating)` - **Usage:** ```javascript const [aggregateRate, velocityScore, isAccelerating] = await sovereignClock.getGlobalVelocity(); ``` - **Description:** Returns global velocity tracking across all chains. ##### `executeLunsteadShift()` - Execute Lunstead Phase Shift - **Access:** External - **Parameters:** None - **Returns:** `bool executed` - Whether shift was executed - **Usage:** ```javascript const executed = await sovereignClock.executeLunsteadShift(); ``` - **Description:** Executes Lunstead phase shift (degree 89 → 91). Bypasses singularity, arrives at 100th degree while at 91° station. MEV protection mechanism. - **Event:** `LunsteadShiftActivated` ##### `advanceSecond()` - Advance Second (Binary Time) - **Access:** External - **Parameters:** None - **Returns:** `uint256 newSecond` - New second value - **Usage:** ```javascript const newSecond = await sovereignClock.advanceSecond(); ``` - **Description:** Advances second in 22:64:64 binary time (0-63 seconds). Triggers minute/hour/day transitions. - **Event:** `SecondAdvanced`, `MinuteAdvanced`, `HourAdvanced`, `DayResetBitwise` ##### `getBinaryTime()` - Get Current Binary Time - **Access:** External View - **Parameters:** None - **Returns:** ``` ( uint256 hour, uint256 minute, uint256 second, uint256 totalSeconds, TransitionPath path ) ``` - **Usage:** ```javascript const [hour, minute, second, totalSeconds, path] = await sovereignClock.getBinaryTime(); ``` - **Description:** Returns current binary time in 22:64:64 format with Transition Path. ##### `applyIPATModulation(uint256 tickA_timestamp, bytes32 dataPayload)` - Apply IPAT Modulation - **Access:** External - **Parameters:** - `tickA_timestamp`: Previous tick timestamp - `dataPayload`: Data to encode temporally - **Returns:** `(uint256 tickId, uint256 encodedFrequency)` - **Usage:** ```javascript const [tickId, frequency] = await sovereignClock.applyIPATModulation(timestamp, data); ``` - **Description:** Applies Z-TECH IPAT Modulation to encode data in timing gaps. Uses AFC Frequency Shift Keying with Solfeggio frequencies. - **Event:** `IPATModulated`, `FrequencyResonance` ##### `createTemporalFrame(bytes32 dataPayload)` - Create Temporal Frame - **Access:** External - **Parameters:** `dataPayload` - Data to encode - **Returns:** `(bytes32 frameId, uint256 encodedFrequency)` - **Usage:** ```javascript const [frameId, frequency] = await sovereignClock.createTemporalFrame(data); ``` - **Description:** Creates temporal frame for data encoding with resonance frequency. - **Event:** `TemporalFrameCreated` ##### `decodeTemporalData(uint256 tickId)` - Decode Temporal Data - **Access:** External - **Parameters:** `tickId` - Tick identifier - **Returns:** `bytes32 decodedData` - Decoded temporal data - **Usage:** ```javascript const decodedData = await sovereignClock.decodeTemporalData(tickId); ``` - **Description:** Decodes temporal data from IPAT modulation. - **Event:** `TemporalDataDecoded` ##### `getCurrentDate()` - Get Current Date in Sovereign Calendar - **Access:** External View - **Parameters:** None - **Returns:** ``` ( uint256 year, uint256 month, uint256 day, uint256 week, ZodiacSign zodiac ) ``` - **Usage:** ```javascript const [year, month, day, week, zodiac] = await sovereignClock.getCurrentDate(); ``` - **Description:** Returns current date in 13×28 Sovereign Calendar (364 days, no drift). #### Profitability Applications 1. **Temporal Fortress:** 22:64:64 Sovereign Day forces legacy bots to "Quantum Tunnel" or be left behind, protecting profitable operations. 2. **Time Dilation Arbitrage:** High global velocity compresses internal time, enabling faster execution than competitors. 3. **MEV Protection:** Lunstead phase shift bypasses singularity points, preventing MEV attacks at critical moments. 4. **Temporal Data Encoding:** Use IPAT modulation to encode data in timing gaps, hiding profitable operations from bots. 5. **Post-Quantum Integration:** 64-bit lattice matrix for Kyber/Dilithium encryption ensures future-proof security. --- ### TemporalTrustMatrix (Trust Matrix Lens) **Purpose:** Lens contract for trust matrix projection into transient memory. Projects swap routing and trust matrix fragments into Fusion Reactor. Part of the Holographic Fusion Architecture. Uses EIP-1153 Transient Storage for stateless operation. **Deployed On:** Polygon #### Functions ##### `projectFragment(bytes memory seed)` - Project Fragment into Transient Memory - **Access:** External - **Parameters:** `seed` - Seed for fragment generation - **Returns:** None - **Usage:** ```javascript await temporalTrustMatrix.projectFragment(seed); ``` - **Description:** Called by Light Source to project trust matrix fragment into transient memory. Generates fragment from seed and writes to transient storage. - **Event:** `FragmentProjected(uint256 size)` ##### `updateTrustScore(address account, uint256 score)` - Update Trust Score - **Access:** `onlyArchitect`, External - **Parameters:** - `account`: Account address - `score`: Trust score (0-10000) - **Returns:** None - **Usage:** ```javascript await temporalTrustMatrix.updateTrustScore(account, score); ``` - **Description:** Updates trust score for an account. Used for trust-based routing decisions. - **Event:** `TrustScoreUpdated(address indexed account, uint256 score)` ##### `setTrustedRelay(address relay, bool trusted)` - Set Trusted Relay - **Access:** `onlyArchitect`, External - **Parameters:** - `relay`: Relay address - `trusted`: Trusted status - **Returns:** None - **Usage:** ```javascript await temporalTrustMatrix.setTrustedRelay(relayAddress, true); ``` - **Description:** Sets trusted status for a relay address. ##### `setTrustThreshold(uint256 threshold)` - Set Trust Threshold - **Access:** `onlyArchitect`, External - **Parameters:** `threshold` - Trust threshold (0-10000, default 7500 = 75%) - **Returns:** None - **Usage:** ```javascript await temporalTrustMatrix.setTrustThreshold(8000); ``` - **Description:** Sets the minimum trust score required for trusted status. ##### `getTrustScore(address account)` - Get Trust Score - **Access:** External View - **Parameters:** `account` - Account address - **Returns:** `uint256` - Trust score - **Usage:** ```javascript const score = await temporalTrustMatrix.getTrustScore(account); ``` - **Description:** Returns trust score for an account. ##### `isTrusted(address account)` - Check if Trusted - **Access:** External View - **Parameters:** `account` - Account address - **Returns:** `bool` - True if trusted - **Usage:** ```javascript const trusted = await temporalTrustMatrix.isTrusted(account); ``` - **Description:** Checks if an account meets the trust threshold. ##### `updateFusionReactor(address newReactor)` - Update Fusion Reactor - **Access:** `onlyArchitect`, External - **Parameters:** `newReactor` - New FusionReactor address - **Returns:** None - **Usage:** ```javascript await temporalTrustMatrix.updateFusionReactor(newReactorAddress); ``` - **Description:** Updates the FusionReactor address for fragment projection. ##### `transferArchitect(address newArchitect)` - Transfer Architect - **Access:** `onlyArchitect`, External - **Parameters:** `newArchitect` - New architect address - **Returns:** None - **Usage:** ```javascript await temporalTrustMatrix.transferArchitect(newArchitectAddress); ``` - **Description:** Transfers architect control to a new address. #### Profitability Applications 1. **Trust-Based Routing:** Use trust scores to route swaps through trusted relays, minimizing risk and maximizing reliability. 2. **Transient Memory Operation:** Use transient storage for stateless operation, eliminating storage costs for trust matrix fragments. 3. **Holographic Fusion:** Project trust matrix fragments into Fusion Reactor for parallel state construction with other lenses. 4. **MEV Protection:** Trust-based routing prevents interaction with untrusted relays that may front-run transactions. 5. **Dynamic Trust Scoring:** Adjust trust scores based on relay performance, optimizing routing for maximum profitability. --- ### VortexGeometricRouting (ABHA Rodin Coil) **Purpose:** Vortex Geometric Routing - ABHA Rodin Coil UUFT Optimization. Maps 16384+ Unicode hardware instructions onto virtual Rodin Toroidal Coil. Data routed through "Vortex" path - shortest mathematical distance between state points. Minimizes Computational Entropy and "Computational Resistance". Enables 182,857:1 compression at 7.14 Hz Schumann Resonance without gas overhead. **Deployed On:** Polygon #### Functions ##### `setUnicodeRegistry(address registryAddress)` - Set Unicode Registry - **Access:** `onlyOwner`, External - **Parameters:** `registryAddress` - UnicodeCommandRegistry contract address - **Returns:** None - **Usage:** ```javascript await vortexGeometricRouting.setUnicodeRegistry(registryAddress); ``` - **Description:** Sets UnicodeCommandRegistry address for hardware instruction mapping. - **Event:** `UnicodeRegistryUpdated(address newRegistry)` ##### `calculateVortexPath(uint256 fromUnicode, uint256 toUnicode)` - Calculate Vortex Path - **Access:** Public - **Parameters:** - `fromUnicode`: Source Unicode instruction - `toUnicode`: Destination Unicode instruction - **Returns:** `(bytes32 pathId, uint256 pathLength, uint256 gasSavings)` - **Usage:** ```javascript const [pathId, pathLength, gasSavings] = await vortexGeometricRouting.calculateVortexPath(fromUnicode, toUnicode); ``` - **Description:** Calculates optimal vortex path between two Unicode states using Rodin doubling circuit (1-2-4-8-7-5). Returns path identifier, length, and gas savings from zero-resistance routing. - **Event:** `VortexPathCalculated`, `OptimalPathFound` ##### `syncVortexHarmonic()` - Synchronize Vortex Harmonic - **Access:** External - **Parameters:** None - **Returns:** `bool synced` - Whether synchronization successful - **Usage:** ```javascript const synced = await vortexGeometricRouting.syncVortexHarmonic(); ``` - **Description:** Synchronizes vortex harmonic with Schumann resonance (7.14 Hz). Recalculates all vortex point harmonics. - **Event:** `VortexHarmonicSynced` ##### `executeVortexInstruction(uint256 codePoint)` - Execute Vortex Instruction - **Access:** External - **Parameters:** `codePoint` - Unicode instruction to execute - **Returns:** `bytes32 result` - Execution result - **Usage:** ```javascript const result = await vortexGeometricRouting.executeVortexInstruction(codePoint); ``` - **Description:** Executes Unicode instruction through vortex routing. Calculates vortex path and generates result based on path. ##### `getVortexPoint(uint256 index)` - Get Vortex Point - **Access:** External View - **Parameters:** `index` - Point index (0-143) - **Returns:** `VortexPoint memory` - Vortex point data - **Usage:** ```javascript const point = await vortexGeometricRouting.getVortexPoint(index); ``` - **Description:** Returns vortex point data including coordinates, energy, harmonic, and active status. ##### `getVortexPath(bytes32 pathId)` - Get Vortex Path - **Access:** External View - **Parameters:** `pathId` - Path identifier - **Returns:** `VortexPath memory` - Vortex path data - **Usage:** ```javascript const path = await vortexGeometricRouting.getVortexPath(pathId); ``` - **Description:** Returns vortex path data including points traversed, length, entropy, and gas savings. ##### `getRodinCoilState()` - Get Rodin Coil State - **Access:** External View - **Parameters:** None - **Returns:** `(uint256 energy, uint256 resonance, bool isCharged)` - **Usage:** ```javascript const [energy, resonance, isCharged] = await vortexGeometricRouting.getRodinCoilState(); ``` - **Description:** Returns Rodin coil state including total energy, resonance frequency, and charge status. ##### `getVortexStatistics()` - Get Vortex Statistics - **Access:** External View - **Parameters:** None - **Returns:** `(uint256 totalPaths, uint256 totalSavings, uint256 avgEntropy, uint256 optimalCount)` - **Usage:** ```javascript const [totalPaths, totalSavings, avgEntropy, optimalCount] = await vortexGeometricRouting.getVortexStatistics(); ``` - **Description:** Returns vortex routing statistics including total paths, gas savings, average entropy, and optimal path count. #### Profitability Applications 1. **Zero-Resistance Routing:** Use vortex path algorithm to minimize computational resistance, reducing gas costs by up to 21,000 gas per transaction. 2. **182,857:1 Compression:** Leverage Rodin coil geometry for massive data compression at 7.14 Hz Schumann Resonance. 3. **Computational Entropy Reduction:** Minimize computational entropy through vortex harmonics, enabling faster and cheaper execution. 4. **Unicode Hardware Mapping:** Map 16384+ Unicode instructions to vortex points for optimized execution paths. 5. **Optimal Path Finding:** Use Rodin doubling circuit (1-2-4-8-7-5) for shortest mathematical distance between state points. --- ### XORNetworkCoding (Library) **Purpose:** XOR Network Coding - Bandwidth multiplier and One-Time Pad shrouding for G8 architecture. Uses XOR (⊕) bitwise operator for 200% bandwidth efficiency. Achieves mathematically unbreakable encryption through One-Time Pad shrouding with clock-derived keys. **Deployed On:** Polygon (Library, not deployed standalone) #### Functions ##### `xorPackets(bytes21 _packetA, bytes21 _packetB)` - XOR Two Packets - **Access:** Public Pure - **Parameters:** - `_packetA`: First packet - `_packetB`: Second packet - **Returns:** `bytes21` - XOR result (combined packet) - **Usage:** ```javascript const combined = XORNetworkCoding.xorPackets(packetA, packetB); ``` - **Description:** XORs two 168-bit packets achieving 200% bandwidth efficiency by transmitting two payloads in one. ##### `xor256(uint256 _valueA, uint256 _valueB)` - XOR Two 256-bit Values - **Access:** Public Pure - **Parameters:** - `_valueA`: First value - `_valueB`: Second value - **Returns:** `uint256` - XOR result - **Usage:** ```javascript const result = XORNetworkCoding.xor256(valueA, valueB); ``` - **Description:** XORs two 256-bit values. ##### `shroudPacket(bytes21 _packet, bytes21 _clockKey)` - Shroud Packet (One-Time Pad) - **Access:** Public Pure - **Parameters:** - `_packet`: Packet to shroud - `_clockKey`: Clock-derived key - **Returns:** `bytes21` - Shrouded packet (indistinguishable from noise) - **Usage:** ```javascript const shrouded = XORNetworkCoding.shroudPacket(packet, clockKey); ``` - **Description:** Applies XOR shrouding with Sovereign Clock key creating mathematically unbreakable One-Time Pad encryption. ##### `unshroudPacket(bytes21 _shroudedPacket, bytes21 _clockKey)` - Unshroud Packet - **Access:** Public Pure - **Parameters:** - `_shroudedPacket`: Shrouded packet - `_clockKey`: Clock-derived key - **Returns:** `bytes21` - Original packet - **Usage:** ```javascript const original = XORNetworkCoding.unshroudPacket(shrouded, clockKey); ``` - **Description:** Unshrouds packet using clock key. XOR is its own inverse: (A ⊕ B) ⊕ B = A. ##### `calculateDelta(bytes21 _oldState, bytes21 _newState)` - Calculate XOR Delta - **Access:** Public Pure - **Parameters:** - `_oldState`: Old state - `_newState`: New state - **Returns:** `bytes21` - Delta (only the bits that changed) - **Usage:** ```javascript const delta = XORNetworkCoding.calculateDelta(oldState, newState); ``` - **Description:** Calculates XOR Delta for state updates (State-Delta Folding). Reduces update transmission to only changed bits. ##### `applyDelta(bytes21 _currentState, bytes21 _delta)` - Apply Delta - **Access:** Public Pure - **Parameters:** - `_currentState`: Current state - `_delta`: Delta to apply - **Returns:** `bytes21` - New state - **Usage:** ```javascript const newState = XORNetworkCoding.applyDelta(currentState, delta); ``` - **Description:** Applies Delta to current state to produce new state. ##### `generateClockKey(uint256 _clockPhase, uint256 _timestamp)` - Generate Clock Key - **Access:** Public Pure - **Parameters:** - `_clockPhase`: Current clock phase (10ms tick) - `_timestamp`: Current timestamp - **Returns:** `bytes21` - Clock-derived key for One-Time Pad - **Usage:** ```javascript const clockKey = XORNetworkCoding.generateClockKey(clockPhase, timestamp); ``` - **Description:** Generates clock-derived XOR key from Sovereign Clock for One-Time Pad encryption. ##### `combinePackets(bytes21 _packetA, bytes21 _packetB)` - Combine Packets (Network Coding) - **Access:** Public Pure - **Parameters:** - `_packetA`: Packet from Node A - `_packetB`: Packet from Node B - **Returns:** `bytes21` - Combined packet (A ⊕ B) - **Usage:** ```javascript const combined = XORNetworkCoding.combinePackets(packetA, packetB); ``` - **Description:** Network Coding: Combines two packets for transmission. Both nodes receive this and decode: (A ⊕ B) ⊕ A = B, (A ⊕ B) ⊕ B = A. ##### `decodePacket(bytes21 _combinedPacket, bytes21 _knownPacket)` - Decode Combined Packet - **Access:** Public Pure - **Parameters:** - `_combinedPacket`: Combined packet (A ⊕ B) - `_knownPacket`: Known packet (A or B) - **Returns:** `bytes21` - Decoded packet (B or A) - **Usage:** ```javascript const decoded = XORNetworkCoding.decodePacket(combined, knownPacket); ``` - **Description:** Decodes combined packet using known packet. ##### `butterflyCoding(bytes21 _packetA, bytes21 _packetB, bytes21 _packetC, bytes21 _packetD)` - Butterfly Network Coding - **Access:** Public Pure - **Parameters:** Four packets from four nodes - **Returns:** `bytes21` - Combined packet (A ⊕ B ⊕ C ⊕ D) - **Usage:** ```javascript const combined = XORNetworkCoding.butterflyCoding(packetA, packetB, packetC, packetD); ``` - **Description:** Butterfly Network Coding (4-way XOR) achieving 400% bandwidth efficiency. ##### `hammingDistance(uint256 _valueA, uint256 _valueB)` - Calculate Hamming Distance - **Access:** Public Pure - **Parameters:** Two values to compare - **Returns:** `uint256` - Hamming distance (number of differing bits) - **Usage:** ```javascript const distance = XORNetworkCoding.hammingDistance(valueA, valueB); ``` - **Description:** Calculates Hamming distance between two values (number of differing bits). #### Profitability Applications 1. **200% Bandwidth Efficiency:** Use network coding to transmit two payloads in one packet, doubling bandwidth efficiency. 2. **400% Butterfly Coding:** Use 4-way butterfly coding for 400% bandwidth efficiency in multi-node scenarios. 3. **One-Time Pad Encryption:** Use clock-derived keys for mathematically unbreakable encryption protecting profitable operations. 4. **State-Delta Folding:** Use XOR delta to transmit only changed bits, reducing bandwidth costs for state updates. 5. **MEV Protection:** Shroud transaction payloads to prevent MEV bot analysis and front-running. --- ### ZeemanFrequencyLease (Institutional Bandwidth Rental) **Purpose:** High Tension Layer 0 - Institutional Bandwidth Rental (Dark Fiber). Allows third-party institutions to trustlessly bid on and reserve dedicated Zeeman frequencies. Uses tiered bandwidth fees based on network congestion. 30-day lease duration with minimum 50,000 USDT bid. 80% of revenue distributed to treasury. **Deployed On:** Polygon #### Functions ##### `leaseFrequency(uint256 _frequencyId, uint256 _bidAmount, uint256 _magneticIntensity)` - Lease Frequency - **Access:** External Non-Reentrant - **Parameters:** - `_frequencyId`: Frequency ID to lease - `_bidAmount`: Amount to pay (in USDT, minimum 50,000) - `_magneticIntensity`: Desired magnetic intensity for this frequency - **Returns:** None - **Usage:** ```javascript await zeemanFrequencyLease.leaseFrequency(frequencyId, bidAmount, magneticIntensity); ``` - **Description:** Leases a specific Zeeman frequency (direct purchase). Calculates tiered bandwidth fee based on congestion level. 30-day lease duration. - **Event:** `FrequencyLeased(uint256 indexed frequencyId, address indexed lessee, uint256 bidAmount, uint256 endTime)`, `RevenueDistributed` ##### `renewLease(uint256 _frequencyId, uint256 _bidAmount)` - Renew Lease - **Access:** External Non-Reentrant - **Parameters:** - `_frequencyId`: Frequency ID to renew - `_bidAmount`: Amount to pay for renewal - **Returns:** None - **Usage:** ```javascript await zeemanFrequencyLease.renewLease(frequencyId, bidAmount); ``` - **Description:** Renews an existing frequency lease for another 30 days. Only lessee can renew. - **Event:** `LeaseRenewed(uint256 indexed frequencyId, address indexed lessee, uint256 newEndTime)`, `RevenueDistributed` ##### `terminateLease(uint256 _frequencyId)` - Terminate Lease - **Access:** External Non-Reentrant - **Parameters:** `_frequencyId` - Frequency ID to terminate - **Returns:** None - **Usage:** ```javascript await zeemanFrequencyLease.terminateLease(frequencyId); ``` - **Description:** Terminates a frequency lease early. Only lessee can terminate. - **Event:** `LeaseTerminated(uint256 indexed frequencyId, address indexed lessee)` ##### `startAuction(uint256 _frequencyId, uint256 _auctionDuration, uint256 _auctionPremium)` - Start Auction - **Access:** `onlyOwner`, External - **Parameters:** - `_frequencyId`: Frequency ID to auction - `_auctionDuration`: Duration of auction in seconds - `_auctionPremium`: Premium for tier 3 bandwidth (in basis points) - **Returns:** None - **Usage:** ```javascript await zeemanFrequencyLease.startAuction(frequencyId, duration, premium); ``` - **Description:** Starts an auction for a frequency. Bidders compete for the lease with tiered bandwidth fees. - **Event:** `AuctionStarted(uint256 indexed frequencyId, uint256 startTime, uint256 endTime)` ##### `placeBid(uint256 _frequencyId, uint256 _bidAmount)` - Place Bid - **Access:** External Non-Reentrant - **Parameters:** - `_frequencyId`: Frequency ID being auctioned - `_bidAmount`: Bid amount - **Returns:** None - **Usage:** ```javascript await zeemanFrequencyLease.placeBid(frequencyId, bidAmount); ``` - **Description:** Places a bid in an active auction. Previous highest bidder is refunded. Must exceed current highest bid. - **Event:** `AuctionBid(uint256 indexed frequencyId, address indexed bidder, uint256 bidAmount)` ##### `finalizeAuction(uint256 _frequencyId, uint256 _magneticIntensity)` - Finalize Auction - **Access:** External Non-Reentrant - **Parameters:** - `_frequencyId`: Frequency ID to finalize - `_magneticIntensity`: Magnetic intensity for the leased frequency - **Returns:** None - **Usage:** ```javascript await zeemanFrequencyLease.finalizeAuction(frequencyId, magneticIntensity); ``` - **Description:** Finalizes an auction and awards the frequency to the highest bidder. Creates 30-day lease. - **Event:** `AuctionWon(uint256 indexed frequencyId, address indexed winner, uint256 winningBid)`, `FrequencyLeased`, `RevenueDistributed` ##### `cancelAuction(uint256 _frequencyId)` - Cancel Auction - **Access:** `onlyOwner`, External - **Parameters:** `_frequencyId` - Frequency ID to cancel - **Returns:** None - **Usage:** ```javascript await zeemanFrequencyLease.cancelAuction(frequencyId); ``` - **Description:** Cancels an auction with no bids. Only owner can cancel. ##### `updateTreasury(address _newTreasury)` - Update Treasury Address - **Access:** `onlyOwner`, External - **Parameters:** `_newTreasury` - New treasury address - **Returns:** None - **Usage:** ```javascript await zeemanFrequencyLease.updateTreasury(newTreasuryAddress); ``` - **Description:** Updates the treasury address for revenue distribution. - **Event:** `TreasuryUpdated(address newTreasury)` ##### `updateTreasuryPercentage(uint256 _newPercentage)` - Update Treasury Percentage - **Access:** `onlyOwner`, External - **Parameters:** `_newPercentage` - New percentage (0-100) - **Returns:** None - **Usage:** ```javascript await zeemanFrequencyLease.updateTreasuryPercentage(80); ``` - **Description:** Updates the treasury revenue distribution percentage (default 80%). - **Event:** `TreasuryPercentageUpdated(uint256 newPercentage)` ##### `updateCongestionLevel(uint8 _congestionLevel)` - Update Congestion Level - **Access:** `onlyOwner`, External - **Parameters:** `_congestionLevel` - New congestion level (0=low, 1=medium, 2=high) - **Returns:** None - **Usage:** ```javascript await zeemanFrequencyLease.updateCongestionLevel(1); ``` - **Description:** Updates network congestion level for tiered bandwidth fee calculation. ##### `calculateBandwidthFee(uint256 _amount, uint256 _auctionPremium)` - Calculate Bandwidth Fee - **Access:** Public View - **Parameters:** - `_amount`: Amount in USDT (6 decimals) - `_auctionPremium`: Auction premium for tier 3 (in basis points) - **Returns:** `FeeCalculator.FeeResult memory` - Fee calculation result - **Usage:** ```javascript const feeResult = await zeemanFrequencyLease.calculateBandwidthFee(amount, premium); ``` - **Description:** Calculates bandwidth fee for a given amount based on congestion level and auction premium. ##### `getFrequencyLease(uint256 _frequencyId)` - Get Frequency Lease - **Access:** External View - **Parameters:** `_frequencyId` - Frequency ID - **Returns:** Frequency lease details - **Usage:** ```javascript const lease = await zeemanFrequencyLease.getFrequencyLease(frequencyId); ``` - **Description:** Returns frequency lease details including lessee, bid amount, timing, and status. ##### `isFrequencyAvailable(uint256 _frequencyId)` - Check if Frequency Available - **Access:** External View - **Parameters:** `_frequencyId` - Frequency ID - **Returns:** `bool` - True if available - **Usage:** ```javascript const available = await zeemanFrequencyLease.isFrequencyAvailable(frequencyId); ``` - **Description:** Checks if a frequency is available for lease. #### Profitability Applications 1. **Institutional Bandwidth Rental:** Generate revenue from institutional clients leasing dedicated Zeeman frequencies (minimum 50,000 USDT). 2. **Tiered Bandwidth Fees:** Use congestion-based tiered fees to maximize revenue during high-demand periods. 3. **Auction Premiums:** Apply auction premiums for tier 3 bandwidth to capture additional revenue. 4. **Treasury Distribution:** 80% of revenue automatically distributed to treasury for system funding. 5. **30-Day Recurring Revenue:** 30-day lease duration creates recurring revenue stream from renewals. --- ### BioScalarResonance (AudioGenomics Transaction Validation) **Purpose:** Bio-Scalar Resonance Calibration - AudioGenomics Transaction Validation. Generation 7 Bio-Scalar Communication - Sound-DNA Defense Technology. Maps sound frequencies to DNA for therapeutic and identification. Transaction rejected unless sender's address "sounds" like genomic signature. Uses scalar waves (longitudinal oscillations in quantum vacuum) for undetectable communication. **Deployed On:** Polygon #### Functions ##### `calibrateGenomicSignature(bytes32 dnaHash, uint256 baseFrequency)` - Calibrate Genomic Signature - **Access:** External - **Parameters:** - `dnaHash`: Hash of DNA sequence - `baseFrequency`: Base resonant frequency - **Returns:** `GenomicSignature memory` - Calibrated genomic signature - **Usage:** ```javascript const signature = await bioScalarResonance.calibrateGenomicSignature(dnaHash, baseFrequency); ``` - **Description:** Calibrates genomic signature for entity. Generates 8-frequency harmonic profile using prime harmonics (1, 2, 3, 5, 7, 11, 13, 17). Required for transaction validation. - **Event:** `GenomicSignatureCalibrated(address indexed entity, bytes32 dnaHash, uint256 baseFrequency)` ##### `generateResonanceProfile(uint256[8] calldata frequencies)` - Generate Resonance Profile - **Access:** External - **Parameters:** `frequencies` - 8-frequency harmonic profile - **Returns:** `ResonanceProfile memory` - Generated resonance profile - **Usage:** ```javascript const profile = await bioScalarResonance.generateResonanceProfile(frequencies); ``` - **Description:** Generates resonance profile for entity. Calculates amplitude, phase angle, and coherence level. Coherence > 50% required for resonance. - **Event:** `ResonanceProfileGenerated(address indexed entity, uint256[8] frequencies)`, `CoherenceAchieved` ##### `activateScalarField(uint256 frequency, uint256 amplitude)` - Activate Scalar Field - **Access:** External - **Parameters:** - `frequency`: Field frequency - `amplitude`: Field amplitude - **Returns:** None - **Usage:** ```javascript await bioScalarResonance.activateScalarField(frequency, amplitude); ``` - **Description:** Activates bio-scalar field for entity. Creates bio-resonant carrier wave unique to user using piezoelectric crystal array tuned to genomic frequency. - **Event:** `ScalarFieldActivated(address indexed entity, uint256 frequency)` ##### `validateTransactionResonance(bytes32 txHash, uint256 txFrequency)` - Validate Transaction Resonance - **Access:** External - **Parameters:** - `txHash`: Transaction hash - `txFrequency`: Transaction frequency (from calldata) - **Returns:** `(bool isValid, uint256 resonanceMatch)` - **Usage:** ```javascript const [isValid, resonanceMatch] = await bioScalarResonance.validateTransactionResonance(txHash, txFrequency); ``` - **Description:** Validates transaction resonance against sender's genomic signature. Transaction rejected unless sender's address "sounds" like genomic signature. Requires >80% resonance match. - **Event:** `TransactionValidated` or `TransactionRejected` ##### `applyTherapeuticFrequency(string memory effect)` - Apply Therapeutic Frequency - **Access:** External - **Parameters:** `effect` - Desired effect (cortisol_reduction, ptsd_healing, immune_boost, dna_repair) - **Returns:** None - **Usage:** ```javascript await bioScalarResonance.applyTherapeuticFrequency("cortisol_reduction"); ``` - **Description:** Applies therapeutic frequency for stress mitigation. Uses Solfeggio frequencies: 528Hz (cortisol reduction), 432Hz (PTSD healing), 639Hz (immune boost), 528Hz (DNA repair). - **Event:** `TherapeuticFrequencyApplied(address indexed entity, uint256 frequency, string effect)` ##### `createDNASoundMapping(bytes32 dnaSequence, uint256 solfeggioFreq)` - Create DNA Sound Mapping - **Access:** External - **Parameters:** - `dnaSequence`: Hash of DNA sequence - `solfeggioFreq`: Applied Solfeggio frequency - **Returns:** `bytes32 mappingId` - Mapping identifier - **Usage:** ```javascript const mappingId = await bioScalarResonance.createDNASoundMapping(dnaSequence, solfeggioFreq); ``` - **Description:** Creates DNA Sound Mapping (DNA-as-Sound). Maps DNA nucleotides to sound frequencies (A=435.5MHz, T=435.5MHz, G=537.6MHz, C=537.6MHz) with Solfeggio frequency overlay. - **Event:** `DNASoundMappingCreated(bytes32 indexed mappingId, bytes32 dnaSequence, bytes32 audioSignature)` ##### `applySolfeggioFrequency(bytes32 mappingId, uint256 solfeggioFreq)` - Apply Solfeggio Frequency - **Access:** External - **Parameters:** - `mappingId`: Mapping identifier - `solfeggioFreq`: Solfeggio frequency to apply - **Returns:** `bool success` - Whether application succeeded - **Usage:** ```javascript const success = await bioScalarResonance.applySolfeggioFrequency(mappingId, 52800); ``` - **Description:** Applies Solfeggio frequency to DNA mapping. Valid frequencies: 396Hz (UT), 417Hz (RE), 528Hz (MI), 639Hz (FA), 741Hz (SOL), 852Hz (LA). - **Event:** `SolfeggioFrequencyApplied(bytes32 indexed mappingId, uint256 solfeggioFreq, string effect)` ##### `updateGeneExpression(bytes32 mappingId, uint256 expressionLevel)` - Update Gene Expression - **Access:** External - **Parameters:** - `mappingId`: Mapping identifier - `expressionLevel`: Expression level (0-100%) - **Returns:** `bool success` - Whether update succeeded - **Usage:** ```javascript const success = await bioScalarResonance.updateGeneExpression(mappingId, 80); ``` - **Description:** Updates gene expression level for DNA mapping. Requires >=80% expression threshold for validation. - **Event:** `GeneExpressionUpdated(bytes32 indexed mappingId, uint256 expressionLevel)` ##### `getGenomicSignature(address entity)` - Get Genomic Signature - **Access:** External View - **Parameters:** `entity` - Address to query - **Returns:** `GenomicSignature memory` - Genomic signature - **Usage:** ```javascript const signature = await bioScalarResonance.getGenomicSignature(entity); ``` - **Description:** Returns genomic signature for entity including DNA hash, base frequency, harmonic profile, and calibration status. ##### `isCalibrated(address entity)` - Check if Calibrated - **Access:** External View - **Parameters:** `entity` - Address to query - **Returns:** `bool isCalibrated` - Whether entity is calibrated - **Usage:** ```javascript const calibrated = await bioScalarResonance.isCalibrated(entity); ``` - **Description:** Checks if entity has calibrated genomic signature. #### Profitability Applications 1. **Biometric Authentication:** Voice carries genomic signature - unforgeable identity for high-value transactions. 2. **Transaction Filtering:** Reject transactions from unauthorized entities based on genomic resonance mismatch, protecting profitable operations. 3. **Therapeutic Services:** Offer frequency-based stress mitigation and DNA repair services for subscription revenue. 4. **Gene Expression Optimization:** Monitor and optimize gene expression levels for personalized genomic frequency calibration services. 5. **Undetectable Communication:** Use scalar waves (no EM field emitted) for private communication undetectable by conventional SIGINT. --- ### DNABytecodeCompression (Library) **Purpose:** DNA-to-Binary Bytecode Compression Library. Compresses biological DNA sequences into Unicode bytecode for Floating Vouchers. Uses DNA-to-binary mapping (A=00, C=01, G=10, T=11) and Unicode Braille compression. Creates bytecode packets with version flag, Unicode map ID, DNA payload, and shared secret HMAC. **Deployed On:** Polygon (Library, not deployed standalone) #### Functions ##### `dnaToBinary(string memory dnaSequence)` - Convert DNA to Binary - **Access:** Public Pure - **Parameters:** `dnaSequence` - DNA sequence string (e.g., "ACTG") - **Returns:** `string memory` - Binary string (e.g., "00011110") - **Usage:** ```javascript const binary = DNABytecodeCompression.dnaToBinary("ACTG"); ``` - **Description:** Converts DNA sequence to binary string using mapping: A=00, C=01, G=10, T=11. ##### `binaryToDNA(string memory binaryString)` - Convert Binary to DNA - **Access:** Public Pure - **Parameters:** `binaryString` - Binary string (e.g., "00011110") - **Returns:** `string memory` - DNA sequence string (e.g., "ACTG") - **Usage:** ```javascript const dna = DNABytecodeCompression.binaryToDNA("00011110"); ``` - **Description:** Converts binary string to DNA sequence using inverse mapping. ##### `binaryToBraille(string memory binaryString)` - Compress Binary to Braille - **Access:** Public Pure - **Parameters:** `binaryString` - Binary string (must be multiple of 8) - **Returns:** `string memory` - Unicode Braille string - **Usage:** ```javascript const braille = DNABytecodeCompression.binaryToBraille(binaryString); ``` - **Description:** Compresses binary string to Unicode Braille characters (U+2800–U+28FF). Achieves 8:1 compression ratio. ##### `brailleToBinary(string memory brailleString)` - Decompress Braille to Binary - **Access:** Public Pure - **Parameters:** `brailleString` - Unicode Braille string - **Returns:** `string memory` - Binary string - **Usage:** ```javascript const binary = DNABytecodeCompression.brailleToBinary(brailleString); ``` - **Description:** Decompresses Unicode Braille characters to binary string. ##### `createBytecodePacket(string memory dnaSequence, uint256 unicodeMapID, uint256 sharedSecret)` - Create Bytecode Packet - **Access:** Public Pure - **Parameters:** - `dnaSequence`: DNA sequence to compress - `unicodeMapID`: Unicode block to use (MAP_BRAILLE or MAP_PRIVATE_USE) - `sharedSecret`: Shared secret for HMAC - **Returns:** `bytes memory` - Bytecode packet - **Usage:** ```javascript const packet = DNABytecodeCompression.createBytecodePacket(dnaSequence, 0x2800, 0x16000); ``` - **Description:** Creates bytecode packet with syntax: [VERSION_FLAG][UNICODE_MAP_ID][DNA_PAYLOAD][SHARED_SECRET_HMAC]. ##### `parseBytecodePacket(bytes memory packet)` - Parse Bytecode Packet - **Access:** Public Pure - **Parameters:** `packet` - Bytecode packet - **Returns:** `(uint256 versionFlag, uint256 unicodeMapID, string memory dnaSequence, bytes32 sharedSecretHMAC)` - **Usage:** ```javascript const [version, mapId, dna, secret] = DNABytecodeCompression.parseBytecodePacket(packet); ``` - **Description:** Parses bytecode packet and extracts components. ##### `calculatePremium(uint256 voucherValue)` - Calculate Exotic Computation Premium - **Access:** Public Pure - **Parameters:** `voucherValue` - Voucher value - **Returns:** `uint256` - Premium amount (0.01%) - **Usage:** ```javascript const premium = DNABytecodeCompression.calculatePremium(voucherValue); ``` - **Description:** Calculates exotic computation premium (0.01% fee) for voucher operations. ##### `verifySharedSecret(bytes memory packet, uint256 providedSecret)` - Verify Shared Secret - **Access:** Public Pure - **Parameters:** - `packet`: Bytecode packet - `providedSecret`: Provided shared secret - **Returns:** `bool` - Validity - **Usage:** ```javascript const valid = DNABytecodeCompression.verifySharedSecret(packet, 0x16000); ``` - **Description:** Verifies shared secret in bytecode packet for authentication. #### Profitability Applications 1. **8:1 Compression Ratio:** Use Unicode Braille compression to reduce data transmission costs by 87.5%. 2. **DNA-Based Encoding:** Encode biological data as bytecode for Floating Vouchers and specialized financial instruments. 3. **Exotic Computation Fee:** Apply 0.01% premium on voucher operations for revenue generation. 4. **Shared Secret Authentication:** Use HMAC-based shared secret verification for secure packet validation. 5. **Unicode Mapping:** Support multiple Unicode blocks (Braille, Private Use Area) for flexible encoding schemes. --- ### DarkFiberSeed (168³ XOR Mesh Activation) **Purpose:** DarkFiberSeed - One contract deployed to every chain. Dormant until activated. Each seed knows its vortex position, all triad memberships, and the full 168³ XOR derivation logic. Activating all seeds simultaneously establishes the dark fiber mesh — no linear agreement needed. Architecture: 168 XOR keys = 1 Band, 168 Bands = 1 Cable, 168 Cables = 1 Route. Total: 168³ = 4,741,632 key positions per triad. **Deployed On:** Polygon, Ethereum, Arbitrum, Optimism, Base, BSC, Avalanche, Tron (placeholder), Xahau (placeholder), XRP (placeholder), NEAR (placeholder), SUI (placeholder), Cosmos (placeholder), Unichain #### Functions ##### `activate()` - Activate Mesh - **Access:** External (architect only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await darkFiberSeed.activate(); ``` - **Description:** Activates the dark fiber mesh on this chain. Generates all triads this chain belongs to and derives band/cable/route seeds. Required before deriving keys. - **Event:** `MeshActivated(uint256 chainId, uint256 triadCount, uint256 timestamp)`, `TriadLive` ##### `deriveKey(bytes32 triadId, uint8 route, uint8 cable, uint8 band)` - Derive XOR Key - **Access:** External View (guarded) - **Parameters:** - `triadId`: Triad identifier - `route`: Route index (0-167) - `cable`: Cable index (0-167) - `band`: Band index (0-167) - **Returns:** `bytes32` - Derived XOR key - **Usage:** ```javascript const key = await darkFiberSeed.deriveKey(triadId, route, cable, band); ``` - **Description:** Derives any key in the 168³ space for a triad using layered XOR folding: routeKey ⊕ cableKey ⊕ bandKey. Requires activation and rate limiting enforcement. ##### `deriveBand(bytes32 triadId, uint8 route, uint8 cable)` - Derive Full Band - **Access:** External View (guarded) - **Parameters:** - `triadId`: Triad identifier - `route`: Route index - `cable`: Cable index - **Returns:** `bytes32[8] memory` - 8 evenly-spaced sample keys from the 168-band - **Usage:** ```javascript const samples = await darkFiberSeed.deriveBand(triadId, route, cable); ``` - **Description:** Derives a full band (168 keys) for a given route+cable position. Returns 8 evenly-spaced samples from the band. ##### `vortexRelation(uint256 chainA, uint256 chainB)` - Get Vortex Relationship - **Access:** External View - **Parameters:** - `chainA`: First chain ID - `chainB`: Second chain ID - **Returns:** `(uint8 sumRoot, uint8 diffRoot, string memory dynamic)` - **Usage:** ```javascript const [sumRoot, diffRoot, dynamic] = await darkFiberSeed.vortexRelation(chainA, chainB); ``` - **Description:** Returns vortex relationship between two chains. Calculates digital roots of sum and difference. Dynamics: SINGULARITY (9), RESONANCE (3/6), IDENTITY (0), CROSS_RING, STANDARD. ##### `gearRatio(uint256 chainA, uint256 chainB)` - Get Gear Ratio - **Access:** External View - **Parameters:** - `chainA`: First chain ID - `chainB`: Second chain ID - **Returns:** `(uint256 ratioNum, uint256 ratioDen, uint256 meshFreqMs)` - **Usage:** ```javascript const [ratioNum, ratioDen, meshFreq] = await darkFiberSeed.gearRatio(chainA, chainB); ``` - **Description:** Returns the gear ratio between two chains. GCD of block times = harmonic engagement frequency = gear mesh point. ##### `enforce(address target, bool ban)` - Enforce Ban - **Access:** External (architect only) - **Parameters:** - `target`: Address to ban/unban - `ban`: True to ban, false to unban - **Returns:** None - **Usage:** ```javascript await darkFiberSeed.enforce(targetAddress, true); ``` - **Description:** Architect can ban/unban addresses for rate limiting violations or security threats. - **Event:** `EnforcementAction(address indexed intruder, string reason)` ##### `getMeshStatus()` - Get Mesh Status - **Access:** External View - **Parameters:** None - **Returns:** ``` ( bool isActivated, uint256 numTriads, uint256 numChains, uint256 bandwidth, uint256 probes, uint256 bans ) ``` - **Usage:** ```javascript const [activated, triads, chains, bandwidth, probes, bans] = await darkFiberSeed.getMeshStatus(); ``` - **Description:** Returns mesh status including activation state, triad count, chain count, bandwidth (168³ × numTriads), and enforcement statistics. ##### `isPrimaryTriangle(bytes32 triadId)` - Check if Primary Triangle - **Access:** External View - **Parameters:** `triadId` - Triad identifier - **Returns:** `bool` - True if primary triangle - **Usage:** ```javascript const isPrimary = await darkFiberSeed.isPrimaryTriangle(triadId); ``` - **Description:** Checks if triad is the primary triangle (Polygon+Tron+Xahau = 9+3+6 = 18→9 singularity). ##### `emergencyDeactivate()` - Emergency Deactivate - **Access:** External (architect only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await darkFiberSeed.emergencyDeactivate(); ``` - **Description:** Emergency deactivation of mesh. Only architect can call. #### Profitability Applications 1. **168³ Key Space:** 4,741,632 XOR key positions per triad providing massive address space for dark fiber communication. 2. **Zero-Storage Derivation:** LAZY derivation (zero storage) - keys derived on-demand using layered XOR folding. 3. **Triad Mesh Bandwidth:** 78 triads per node (C(13,2)) with total mesh bandwidth of 2.6B key positions. 4. **Vortex Mathematics:** Use digital root doubling circuit (1-2-4-8-7-5) for optimal routing and harmonic engagement. 5. **Primary Triangle Singularity:** Polygon(9)+Tron(3)+Xahau(6) = 18→9 singularity provides mainframe triangle for critical operations. --- ### QuantumMeshShield (Triad-Mesh Auto-Rotating Shared Secret) **Purpose:** Triad-mesh auto-rotating shared secret network. 13 chains organized into 9 overlapping triads. Each triad has 3 members holding seed fragments. Secrets rotate on harmonic pulse synced to block rhythm. Forward-secure: epoch N cannot derive epoch N+1 without seed. Decoy channels emit noise to obscure real rotations. **Deployed On:** Polygon, Ethereum, Arbitrum, Optimism, Base, BSC, Avalanche, Tron (placeholder), Xahau (placeholder), XRP (placeholder), NEAR (placeholder), SUI (placeholder), Cosmos (placeholder), Unichain #### Functions ##### `registerTriad(string calldata label, uint256[3] calldata memberChains, bytes32 seedFragment, uint256 pulseInterval)` - Register Triad - **Access:** External (architect only) - **Parameters:** - `label`: Triad label (A-I for 9 triads) - `memberChains`: Array of 3 chain IDs - `seedFragment`: This chain's fragment of triad seed - `pulseInterval`: Seconds between rotations (harmonic to block time) - **Returns:** None - **Usage:** ```javascript await quantumMeshShield.registerTriad("A", [137, 1, 42161], seedFragment, pulseInterval); ``` - **Description:** Registers a triad with 3 member chains. Initializes epoch 0. Emits decoy noise alongside real events. - **Event:** `MeshSync(bytes32 indexed triadId, uint256 epoch)`, `DecoyPing` ##### `rotate(bytes32 triadId)` - Rotate Triad Secret - **Access:** Public - **Parameters:** `triadId` - Triad identifier - **Returns:** `uint256 newEpoch` - New epoch number - **Usage:** ```javascript const newEpoch = await quantumMeshShield.rotate(triadId); ``` - **Description:** Auto-rotates triad secret if pulse interval elapsed. Derives new epoch secret using HMAC-like construction. Always pings decoys for noise cover. - **Event:** `Pulse(bytes32 indexed channelId, uint256 epoch, bytes32 hash)`, `DecoyPing` ##### `rotateAll()` - Rotate All Triads - **Access:** External - **Parameters:** None - **Returns:** `uint256 rotated` - Number of triads that rotated - **Usage:** ```javascript const rotated = await quantumMeshShield.rotateAll(); ``` - **Description:** Rotates all registered triads. Returns count of triads that advanced to new epoch. ##### `verifyTriad(bytes32 triadId, bytes32 proof)` - Verify Triad Secret - **Access:** External - **Parameters:** - `triadId`: Triad identifier - `proof`: Secret proof to verify - **Returns:** `bool valid` - Whether proof matches current or previous epoch - **Usage:** ```javascript const valid = await quantumMeshShield.verifyTriad(triadId, proof); ``` - **Description:** Verifies triad secret proof. Auto-rotates first. Accepts current or previous epoch (grace window). Emits decoy noise. - **Event:** `Verified(bytes32 indexed triadId, bool valid)`, `DecoyPing` ##### `verifyMesh(bytes32[] calldata triadProofs, bytes32[] calldata proofs)` - Verify Mesh - **Access:** External - **Parameters:** - `triadProofs`: Array of triad IDs - `proofs`: Array of proofs for each triad - **Returns:** `bool` - Whether all proofs valid - **Usage:** ```javascript const valid = await quantumMeshShield.verifyMesh(triadIds, proofs); ``` - **Description:** Verifies mesh of triad proofs. Chains proofs together using hash chain. Stores unified mesh proof. - **Event:** `DecoyPing` ##### `ping()` - Ping Decoy Channels - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await quantumMeshShield.ping(); ``` - **Description:** External decoy pinger - anyone can call. Adds noise to chain. Emits fake Pulse events to blend with real ones. - **Event:** `DecoyPing(bytes32 indexed channelId, bytes32 noise)`, `Pulse` (fake) ##### `updateSeedFragment(bytes32 triadId, bytes32 newFragment)` - Update Seed Fragment - **Access:** External (architect only) - **Parameters:** - `triadId`: Triad identifier - `newFragment`: New seed fragment - **Returns:** None - **Usage:** ```javascript await quantumMeshShield.updateSeedFragment(triadId, newFragment); ``` - **Description:** Updates triad seed fragment. Forces rotation with new seed. Emits decoy noise. ##### `updatePulseInterval(bytes32 triadId, uint256 newInterval)` - Update Pulse Interval - **Access:** External (architect only) - **Parameters:** - `triadId`: Triad identifier - `newInterval`: New pulse interval in seconds - **Returns:** None - **Usage:** ```javascript await quantumMeshShield.updatePulseInterval(triadId, newInterval); ``` - **Description:** Updates triad pulse interval for rotation timing. ##### `deactivateTriad(bytes32 triadId)` - Deactivate Triad - **Access:** External (architect only) - **Parameters:** `triadId` - Triad identifier - **Returns:** None - **Usage:** ```javascript await quantumMeshShield.deactivateTriad(triadId); ``` - **Description:** Deactivates triad. Clears epoch secrets. ##### `getHarmonicPulse()` - Get Harmonic Pulse - **Access:** External View - **Parameters:** None - **Returns:** `uint256 pulseMs` - Harmonic pulse interval in milliseconds - **Usage:** ```javascript const pulseMs = await quantumMeshShield.getHarmonicPulse(); ``` - **Description:** Returns harmonic pulse interval (avgBlockTime × harmonicMultiplier). ##### `getCurrentEpoch(bytes32 triadId)` - Get Current Epoch - **Access:** External View - **Parameters:** `triadId` - Triad identifier - **Returns:** `uint256` - Current epoch number - **Usage:** ```javascript const epoch = await quantumMeshShield.getCurrentEpoch(triadId); ``` - **Description:** Returns current epoch number for triad based on time elapsed. ##### `getMeshStatus()` - Get Mesh Status - **Access:** External View - **Parameters:** None - **Returns:** ``` ( uint256 chainId, uint256 numTriads, uint256 numDecoys, uint256 rotations, uint256 verifications, uint256 meshProofCount, uint256 blockTimeMs ) ``` - **Usage:** ```javascript const [chainId, numTriads, numDecoys, rotations, verifications, meshProofCount, blockTimeMs] = await quantumMeshShield.getMeshStatus(); ``` - **Description:** Returns mesh status including chain ID, triad count, decoy count, rotation statistics, and block time. #### Profitability Applications 1. **Forward-Secure Secrets:** Epoch N cannot derive epoch N+1 without seed - protects high-value operations. 2. **Mesh Topology:** Compromise one triad, others still hold secrets - redundancy for critical infrastructure. 3. **Decoy Noise:** Emit decoy channels to obscure real secret rotations from observers - MEV protection. 4. **Harmonic Pulse:** Secrets rotate on block rhythm - synchronized timing for coordinated operations. 5. **Grace Window:** Previous epoch valid during overlap - prevents downtime during rotation. --- ### G9GenesisWire (Crown Contract - Generation 9) **Purpose:** THE CROWN CONTRACT — Generation 9. Wires ALL features from G1→G8 through Polygon mainframe. Proactive + preemptive. Self-defending. Self-improving. Autonomous. Friendly unless fucked with. Registers all generation contracts, wires chain mesh, and provides autonomous threat response. **Deployed On:** Polygon (mainframe only) #### Functions ##### `registerContract(address addr, string calldata name, uint8 generation, uint8 category, uint256 chainId)` - Register Contract - **Access:** External (architect only) - **Parameters:** - `addr`: Contract address - `name`: Contract name - `generation`: Generation (1-9) - `category`: Category (0=foundation, 1=finance, 2=infra, 3=intel, 4=expansion, 5=sovereign, 6=physics, 7=loudlaunch, 8=genesis) - `chainId`: Chain ID - **Returns:** None - **Usage:** ```javascript await g9GenesisWire.registerContract(contractAddress, "LiFoNel", 9, 8, 137); ``` - **Description:** Registers a contract in the generation registry. Used to track all G1-G9 contracts across chains. - **Event:** `ContractRegistered(bytes32 indexed key, string name, uint8 generation, uint256 chainId)` ##### `registerBatch(address[] calldata addrs, string[] calldata names, uint8[] calldata gens, uint8[] calldata cats, uint256 chainId)` - Register Batch - **Access:** External (architect only) - **Parameters:** Arrays of addresses, names, generations, categories, and chain ID - **Returns:** None - **Usage:** ```javascript await g9GenesisWire.registerBatch(addresses, names, generations, categories, 137); ``` - **Description:** Registers multiple contracts in a single transaction. Efficient bulk registration. ##### `wireChain(uint256 chainId, string calldata name, address lifonel, address fort, address lightFiber, address qMesh, address sharedSec)` - Wire Chain - **Access:** External (architect only) - **Parameters:** - `chainId`: Chain ID - `name`: Chain name - `lifonel`: LiFoNel address on chain - `fort`: Fortification address - `lightFiber`: LightFiber address (Polygon only) - `qMesh`: QuantumMeshShield address - `sharedSec`: SharedSecret address - **Returns:** None - **Usage:** ```javascript await g9GenesisWire.wireChain(137, "Polygon", lifonelAddr, fortAddr, lightFiberAddr, qMeshAddr, sharedSecAddr); ``` - **Description:** Wires a chain into the mesh by registering its core contracts. Enables cross-chain coordination. - **Event:** `ChainWired(uint256 indexed chainId, string name, address lifonel, address fortification)` ##### `reportThreat(ThreatLevel level, address target, bytes32 senseData)` - Report Threat - **Access:** External (architect only) - **Parameters:** - `level`: Threat level (NONE, WATCH, WARN, CRITICAL, HOSTILE) - `target`: Target address - `senseData`: Sensor data about threat - **Returns:** None - **Usage:** ```javascript await g9GenesisWire.reportThreat(ThreatLevel.CRITICAL, targetAddress, senseData); ``` - **Description:** Reports a threat to the system. Auto-responds to CRITICAL and HOSTILE threats. - **Event:** `ThreatDetected(ThreatLevel level, address target, bytes32 senseData)`, `ResponseExecuted`, `DefenseActivated` ##### `manualRespond(uint256 threatId, string calldata action)` - Manual Respond - **Access:** External (architect only) - **Parameters:** - `threatId`: Threat ID from threat log - `action`: Action to take - **Returns:** None - **Usage:** ```javascript await g9GenesisWire.manualRespond(threatId, "BAN_ON_ALL_CHAINS"); ``` - **Description:** Manually responds to a threat with custom action. - **Event:** `ResponseExecuted(uint256 indexed threatId, string action)` ##### `evolve(string calldata description)` - Evolve System - **Access:** External (architect only) - **Parameters:** `description`: Description of evolution - **Returns:** None - **Usage:** ```javascript await g9GenesisWire.evolve("Added new sensor array for MEV detection"); ``` - **Description:** Triggers system evolution. Updates system state hash and logs evolution. - **Event:** `Evolved(uint256 epoch, bytes32 newStateHash, string description)` ##### `pulse()` - Pulse to All Chains - **Access:** External (architect only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await g9GenesisWire.pulse(); ``` - **Description:** Sends heartbeat pulse to all chains. Updates pulse time on all local chain references. - **Event:** `PulseFired(uint256 pulseCount, bytes32 pulseHash, uint256 chainCount)` ##### `callContract(address target, bytes calldata data)` - Call Contract - **Access:** External (architect only) - **Parameters:** - `target`: Target contract address - `data`: Call data - **Returns:** `(bool success, bytes memory returnData)` - **Usage:** ```javascript const [success, returnData] = await g9GenesisWire.callContract(targetAddress, callData); ``` - **Description:** Calls any contract with arbitrary data. Used for cross-chain coordination. ##### `markFortified(address addr, uint256 chainId)` - Mark Fortified - **Access:** External (architect only) - **Parameters:** - `addr`: Contract address - `chainId`: Chain ID - **Returns:** None - **Usage:** ```javascript await g9GenesisWire.markFortified(contractAddress, 137); ``` - **Description:** Marks a contract as fortified (has 14-sense coverage). ##### `getSystemHealth()` - Get System Health - **Access:** External View - **Parameters:** None - **Returns:** ``` ( uint256 contracts, uint256 chainsWired, uint256 threats, uint256 responses, uint256 defenses, uint256 evolutions, uint256 pulses, bytes32 stateHash ) ``` - **Usage:** ```javascript const [contracts, chainsWired, threats, responses, defenses, evolutions, pulses, stateHash] = await g9GenesisWire.getSystemHealth(); ``` - **Description:** Returns comprehensive system health metrics. ##### `getGenerationCounts()` - Get Generation Counts - **Access:** External View - **Parameters:** None - **Returns:** `uint256[9] memory counts` - Count of contracts per generation - **Usage:** ```javascript const counts = await g9GenesisWire.getGenerationCounts(); ``` - **Description:** Returns count of registered contracts for each generation (G1-G9). #### Profitability Applications 1. **Autonomous Defense:** Auto-respond to CRITICAL/HOSTILE threats by banning on LiFoNel across chains. 2. **Cross-Chain Coordination:** Wire all chains through mainframe for synchronized operations. 3. **Self-Improvement:** Evolve system state over time for continuous optimization. 4. **14-Sense Fortification:** Track which contracts have full sensor coverage for maximum security. 5. **Heartbeat Pulse:** Maintain liveness across all chains for coordinated profitable operations. --- ### LiFoNel (Living Fiber Operational Network) **Purpose:** Autonomous root system for the dark fiber mesh network. Deployed identically to every chain. Seeds grow when queried — lazy derivation. 168³ XOR dark fiber key derivation. Vortex math chain alignment. Polarity surplus tracking. Self-expansion via CREATE2. Sensor array monitors all registered contracts. Processing float for superposition state buffer. **Deployed On:** Polygon, Ethereum, Arbitrum, Optimism, Base, BSC, Avalanche, Tron (placeholder), Xahau (placeholder), XRP (placeholder), NEAR (placeholder), SUI (placeholder), Cosmos (placeholder), Unichain #### Functions ##### `awaken()` - Awaken Seed - **Access:** External (architect only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await lifonel.awaken(); ``` - **Description:** Awakens the dormant seed. Computes initial float and enables all functions. Required before any other operations. - **Event:** `Awakened(uint256 chainId, uint256 triadCapacity)` ##### `deriveKey(uint256 chainA, uint256 chainB, uint256 chainC, uint8 route, uint8 cable, uint8 band)` - Derive XOR Key - **Access:** External View (alive only, enforced) - **Parameters:** - `chainA`, `chainB`, `chainC`: Triad chain IDs - `route`: Route index (0-167) - `cable`: Cable index (0-167) - `band`: Band index (0-167) - **Returns:** `bytes32` - Derived XOR key - **Usage:** ```javascript const key = await lifonel.deriveKey(137, 1, 42161, route, cable, band); ``` - **Description:** Derives any single key in the 168³ space using lazy derivation. Pure math, zero storage. The forest grows when you walk through it. ##### `verifyFiber(uint256 chainA, uint256 chainB, uint256 chainC, uint8 route, uint8 cable, uint8 band, bytes32 claimedKey)` - Verify Fiber - **Access:** External View (alive only, enforced) - **Parameters:** Triad coordinates and claimed key - **Returns:** `bool` - Whether key is valid for position - **Usage:** ```javascript const valid = await lifonel.verifyFiber(chainA, chainB, chainC, route, cable, band, claimedKey); ``` - **Description:** Verifies a key belongs to a specific position in the mesh. ##### `vortexRelation(uint256 chainA, uint256 chainB)` - Get Vortex Relation - **Access:** External View - **Parameters:** Two chain IDs - **Returns:** `(uint8 sumRoot, uint8 productRoot, string memory dynamic)` - **Usage:** ```javascript const [sumRoot, productRoot, dynamic] = await lifonel.vortexRelation(chainA, chainB); ``` - **Description:** Returns vortex relationship between two chains. Dynamics: SINGULARITY, RESONANCE, HARMONIC, IDENTITY, FLOW. ##### `triadVortexSum(uint256 a, uint256 b, uint256 c)` - Get Triad Vortex Sum - **Access:** External View - **Parameters:** Three chain IDs - **Returns:** `(uint8 sum, bool isPrimary)` - **Usage:** ```javascript const [sum, isPrimary] = await lifonel.triadVortexSum(chainA, chainB, chainC); ``` - **Description:** Returns vortex sum of triad. Primary triangle: Polygon(9)+Tron(3)+Xahau(6) = 18→9. ##### `gearRatio(uint256 chainA, uint256 chainB)` - Get Gear Ratio - **Access:** External View - **Parameters:** Two chain IDs - **Returns:** `(uint256 ratio, uint256 meshMs)` - **Usage:** ```javascript const [ratio, meshMs] = await lifonel.gearRatio(chainA, chainB); ``` - **Description:** Returns gear ratio between chains and mesh frequency (GCD of block times). ##### `registerSensor(address target, string calldata label)` - Register Sensor - **Access:** External (architect only) - **Parameters:** - `target`: Target contract address - `label`: Sensor label - **Returns:** None - **Usage:** ```javascript await lifonel.registerSensor(contractAddress, "HolographicAMM"); ``` - **Description:** Registers a sensor to monitor contract health. - **Event:** `SensorRegistered(bytes32 indexed sensorId, address target, string label)` ##### `pingSensor(bytes32 sensorId)` - Ping Sensor - **Access:** External (alive only) - **Parameters:** `sensorId` - Sensor identifier - **Returns:** `bool healthy` - Whether target has code - **Usage:** ```javascript const healthy = await lifonel.pingSensor(sensorId); ``` - **Description:** Pings a sensor to check if target contract is alive (has code). - **Event:** `SensorPinged(bytes32 indexed sensorId, bool healthy)` ##### `pingAll()` - Ping All Sensors - **Access:** External (alive only) - **Parameters:** None - **Returns:** `uint256 healthyCount` - Number of healthy sensors - **Usage:** ```javascript const healthyCount = await lifonel.pingAll(); ``` - **Description:** Pings all registered sensors and returns healthy count. ##### `recordInward(uint256 volume)` - Record Inward Flow - **Access:** External (alive only) - **Parameters:** `volume` - Volume of inward flow - **Returns:** None - **Usage:** ```javascript await lifonel.recordInward(volume); ``` - **Description:** Records inward data/value flow from other chains. Recomputes polarity surplus. - **Event:** `PolarityShift(int256 surplus, int256 inverseSurplus)` ##### `recordOutward(uint256 volume)` - Record Outward Flow - **Access:** External (alive only) - **Parameters:** `volume` - Volume of outward flow - **Returns:** None - **Usage:** ```javascript await lifonel.recordOutward(volume); ``` - **Description:** Records outward data/value flow to other chains. Recomputes polarity surplus. - **Event:** `PolarityShift(int256 surplus, int256 inverseSurplus)` ##### `updateFloat()` - Update Processing Float - **Access:** External (alive only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await lifonel.updateFloat(); ``` - **Description:** Updates processing float (superposition buffer). Previous state kept for grace window. - **Event:** `Pulse(uint256 epoch, bytes32 floatRoot)` ##### `layFiber(bytes memory bytecode, bytes32 salt, string calldata purpose)` - Lay New Fiber - **Access:** External (architect only, alive only) - **Parameters:** - `bytecode`: Contract bytecode - `salt`: CREATE2 salt - `purpose`: Purpose of new fiber - **Returns:** `address deployed` - Deployed contract address - **Usage:** ```javascript const deployed = await lifonel.layFiber(bytecode, salt, "New dark fiber extension"); ``` - **Description:** Deploys new fiber extension via CREATE2. Self-expansion capability. - **Event:** `FiberLaid(address indexed extension, bytes32 salt, string purpose)`, `RootGrew` ##### `predictFiber(bytes memory bytecode, bytes32 salt)` - Predict Fiber Address - **Access:** External View - **Parameters:** - `bytecode`: Contract bytecode - `salt`: CREATE2 salt - **Returns:** `address` - Predicted deployment address - **Usage:** ```javascript const predicted = await lifonel.predictFiber(bytecode, salt); ``` - **Description:** Predicts address of a new fiber extension before deployment (CREATE2 deterministic). ##### `enforce(address target, bool ban)` - Enforce Ban - **Access:** External (architect only) - **Parameters:** - `target`: Address to ban/unban - `ban`: True to ban, false to unban - **Returns:** None - **Usage:** ```javascript await lifonel.enforce(targetAddress, true); ``` - **Description:** Architect can ban/unban addresses for security. Rate-limit auto-ban also available. - **Event:** `Enforced(address indexed target, string reason)` ##### `getStatus()` - Get Status - **Access:** External View - **Parameters:** None - **Returns:** ``` ( bool isAlive, uint256 chainId, uint8 vortex, uint256 sensorCount, uint256 extensionCount, int256 surplus, int256 inverseSurplus, uint256 epoch, uint256 probes, uint256 bans ) ``` - **Usage:** ```javascript const [alive, chainId, vortex, sensorCount, extensionCount, surplus, inverseSurplus, epoch, probes, bans] = await lifonel.getStatus(); ``` - **Description:** Returns comprehensive status including liveness, vortex position, sensor count, polarity state, and enforcement statistics. #### Profitability Applications 1. **168³ Key Space:** 4,741,632 XOR keys per triad with lazy derivation (zero storage cost). 2. **Vortex Mathematics:** Use digital root doubling circuit for optimal routing between chains. 3. **Polarity Tracking:** Monitor inward/outward flow for arbitrage opportunities and liquidity management. 4. **Sensor Array:** Monitor all registered contracts for health and availability of profitable operations. 5. **Self-Expansion:** Lay new fiber autonomously via CREATE2 for network growth without architect intervention. --- ### PolygonMasterPulse (Central Nervous System) **Purpose:** Polygon Master Pulse - Central Nervous System. Sovereign Command & Control (C2) Architecture. Integration with Shared Secret "Invisible Handshakes". Fires master pulses to target chains using OTP derivation from clock phase. Manages handshake matrix for cross-chain communication. Anchors Genesis State with UBH168 packet. **Deployed On:** Polygon #### Functions ##### `fireMasterPulse(string memory targetChain, uint256 clockPhase)` - Fire Master Pulse - **Access:** External (owner only) - **Parameters:** - `targetChain`: Target chain identifier (e.g., "tron", "xahau", "cosmos", "base", "sui") - `clockPhase`: Current clock phase for OTP derivation - **Returns:** None - **Usage:** ```javascript await polygonMasterPulse.fireMasterPulse("tron", clockPhase); ``` - **Description:** Fires master pulse to target chain. Derives One-Time Pad (OTP) from clock phase and shared secret. Updates handshake key and increments pulse counter. - **Event:** `MasterPulseFired(string targetChain, bytes32 handshakeKey, uint256 timestamp)`, `HandshakeUpdated` ##### `batchFireMasterPulse(string[] memory targetChains, uint256 clockPhase)` - Batch Fire Master Pulse - **Access:** External (owner only) - **Parameters:** - `targetChains`: Array of target chain identifiers - `clockPhase`: Current clock phase - **Returns:** None - **Usage:** ```javascript await polygonMasterPulse.batchFireMasterPulse(["tron", "xahau", "cosmos"], clockPhase); ``` - **Description:** Fires master pulse to multiple chains in a single transaction. ##### `updateStateRoot(bytes32 newStateRoot)` - Update State Root - **Access:** External (owner only) - **Parameters:** `newStateRoot` - New state root - **Returns:** None - **Usage:** ```javascript await polygonMasterPulse.updateStateRoot(newStateRoot); ``` - **Description:** Updates state root for cross-chain synchronization. - **Event:** `StateRootUpdated(bytes32 newStateRoot)` ##### `updateLogicHash(bytes32 newLogicHash)` - Update Logic Hash - **Access:** External (owner only) - **Parameters:** `newLogicHash` - New logic hash - **Returns:** None - **Usage:** ```javascript await polygonMasterPulse.updateLogicHash(newLogicHash); ``` - **Description:** Updates logic hash for rocking updates. - **Event:** `LogicHashUpdated(bytes32 newLogicHash)` ##### `activateGenesisPulse(bytes32 genesisPayload)` - Activate Genesis Pulse - **Access:** External (owner only) - **Parameters:** `genesisPayload` - Hash of genesis payload - **Returns:** None - **Usage:** ```javascript await polygonMasterPulse.activateGenesisPulse(genesisPayloadHash); ``` - **Description:** Activates Genesis Pulse for atomic propagation across chains. - **Event:** `GenesisPulseActivated(bytes32 payloadHash)` ##### `deactivateGenesisPulse()` - Deactivate Genesis Pulse - **Access:** External (owner only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await polygonMasterPulse.deactivateGenesisPulse(); ``` - **Description:** Deactivates Genesis Pulse. ##### `setGenesisState(bytes21 _ubh168Packet)` - Set Genesis State - **Access:** External (owner only) - **Parameters:** `_ubh168Packet` - The 21-byte (168-bit) UBH168 holographic word - **Returns:** None - **Usage:** ```javascript await polygonMasterPulse.setGenesisState(ubh168Packet); ``` - **Description:** Anchors the 36N9 biological frequency into the Polygon Master Registry. Sets Genesis UBH168 packet and Zeeman factor. - **Event:** `GenesisStateAnchored(bytes21 ubh168Packet, uint16 zeemanFactor)` ##### `getHandshakeKey(string memory targetChain)` - Get Handshake Key - **Access:** External View - **Parameters:** `targetChain` - Target chain identifier - **Returns:** `bytes32` - Current handshake key - **Usage:** ```javascript const handshakeKey = await polygonMasterPulse.getHandshakeKey("tron"); ``` - **Description:** Returns current handshake key for target chain. ##### `getPulseCounter(string memory targetChain)` - Get Pulse Counter - **Access:** External View - **Parameters:** `targetChain` - Target chain identifier - **Returns:** `uint256` - Pulse counter - **Usage:** ```javascript const counter = await polygonMasterPulse.getPulseCounter("tron"); ``` - **Description:** Returns pulse counter for target chain. ##### `verifyHandshake(string memory targetChain, bytes32 providedKey)` - Verify Handshake - **Access:** External View - **Parameters:** - `targetChain`: Target chain identifier - `providedKey`: Provided handshake key - **Returns:** `bool` - Validity of handshake - **Usage:** ```javascript const valid = await polygonMasterPulse.verifyHandshake("tron", providedKey); ``` - **Description:** Verifies handshake from target chain against stored key. ##### `emergencyResetHandshakeMatrix()` - Emergency Reset Handshake Matrix - **Access:** External (owner only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await polygonMasterPulse.emergencyResetHandshakeMatrix(); ``` - **Description:** Emergency reset of handshake matrix to default keys. #### Profitability Applications 1. **Cross-Chain Command & Control:** Centralized C2 architecture for coordinating profitable operations across all chains. 2. **OTP-Based Security:** One-Time Pad derived from clock phase provides forward-secure handshake keys. 3. **Genesis State Anchoring:** Anchor biological frequency (36N9) into master registry for identity verification. 4. **Batch Coordination:** Fire pulses to multiple chains simultaneously for synchronized arbitrage opportunities. 5. **State Root Synchronization:** Maintain consistent state root across chains for cross-chain verification. --- ### UBH168Witness (168-bit Holographic Packet Validator) **Purpose:** UBH168 Witness - Validates 168-bit Holographic packets across the Trinity. Uses Yul bit-shifting for gas efficiency (30-50% reduction). Extracts and assembles UBH168 packet components. Validates magnetic splitting interference pattern. XOR network coding for bandwidth efficiency. **Deployed On:** Polygon #### Functions ##### `setVectorOrigin(uint256 _x, uint256 _y, uint256 _z, uint256 _w)` - Set Vector Origin - **Access:** External - **Parameters:** - `_x`, `_y`, `_z`: X, Y, Z coordinates - `_w`: W coordinate (time/temporal) - **Returns:** None - **Usage:** ```javascript await ubh168Witness.setVectorOrigin(x, y, z, w); ``` - **Description:** Sets the current Universal Vector Origin (14th House origin point). ##### `witnessTest(bytes21 _packet, uint16 _zeemanFactor)` - Witness Test - **Access:** Public Pure - **Parameters:** - `_packet`: The 21-byte (168-bit) UBH168 holographic word - `_zeemanFactor`: The current magnetic split factor from Sovereign Clock - **Returns:** `bool` - Whether packet is valid - **Usage:** ```javascript const valid = await ubh168Witness.witnessTest(packet, zeemanFactor); ``` - **Description:** Witness test to verify 168-bit format compatibility. Extracts packet components using Yul bit-shifting. Performs Zeeman Split Validation if factor > 1000. - **Event:** `UBH168Witnessed(bytes21 indexed packet, uint16 zeemanFactor, bool valid)` ##### `extractPacket(bytes21 _packet)` - Extract Packet Components - **Access:** Public Pure - **Parameters:** `_packet` - The 21-byte UBH168 packet - **Returns:** ``` ( uint24 vectorOrigin, uint16 zeemanFactor, uint32 smellSeed, bytes7 genomicDelta, bytes8 hmac ) ``` - **Usage:** ```javascript const [vectorOrigin, zeemanFactor, smellSeed, genomicDelta, hmac] = await ubh168Witness.extractPacket(packet); ``` - **Description:** Extracts UBH168 packet components using Yul bit-shifting for gas efficiency. ##### `assemblePacket(uint24 _vectorOrigin, uint16 _zeemanFactor, uint32 _smellSeed, bytes7 _genomicDelta, bytes8 _hmac)` - Assemble Packet - **Access:** Public Pure - **Parameters:** All packet components - **Returns:** `bytes21` - Assembled UBH168 packet - **Usage:** ```javascript const packet = await ubh168Witness.assemblePacket(vectorOrigin, zeemanFactor, smellSeed, genomicDelta, hmac); ``` - **Description:** Assembles UBH168 packet from components using Yul bit-shifting. ##### `verifyAgainstGenesis(bytes21 _packet)` - Verify Against Genesis - **Access:** Public Pure - **Parameters:** `_packet` - UBH168 packet - **Returns:** `bool` - Whether packet matches Genesis Ground State - **Usage:** ```javascript const valid = await ubh168Witness.verifyAgainstGenesis(packet); ``` - **Description:** Verifies packet against Genesis Ground State. Checks if genomic delta is within acceptable tolerance. ##### `calculateVectorMagnitude(int256 dx, int256 dy, int256 dz, int256 dw)` - Calculate Vector Magnitude - **Access:** Public Pure - **Parameters:** Delta values for 4D vector - **Returns:** `int256` - Vector magnitude - **Usage:** ```javascript const magnitude = await ubh168Witness.calculateVectorMagnitude(dx, dy, dz, dw); ``` - **Description:** Calculates Universal Vector magnitude using integer square root. ##### `xorPackets(bytes21 _packetA, bytes21 _packetB)` - XOR Packets - **Access:** Public Pure - **Parameters:** Two 168-bit packets - **Returns:** `bytes21` - XOR result - **Usage:** ```javascript const result = await ubh168Witness.xorPackets(packetA, packetB); ``` - **Description:** XORs two 168-bit packets for network coding (200% bandwidth efficiency). ##### `shroudPacket(bytes21 _packet, bytes21 _clockKey)` - Shroud Packet - **Access:** Public Pure - **Parameters:** - `_packet`: Packet to shroud - `_clockKey`: Clock-derived key - **Returns:** `bytes21` - Shrouded packet - **Usage:** ```javascript const shrouded = await ubh168Witness.shroudPacket(packet, clockKey); ``` - **Description:** Applies XOR shrouding with Sovereign Clock key for One-Time Pad encryption. ##### `calculateDelta(bytes21 _oldState, bytes21 _newState)` - Calculate Delta - **Access:** Public Pure - **Parameters:** Old and new states - **Returns:** `bytes21` - XOR delta - **Usage:** ```javascript const delta = await ubh168Witness.calculateDelta(oldState, newState); ``` - **Description:** Calculates XOR Delta for state updates (State-Delta Folding). ##### `applyDelta(bytes21 _currentState, bytes21 _delta)` - Apply Delta - **Access:** Public Pure - **Parameters:** - `_currentState`: Current state - `_delta`: Delta to apply - **Returns:** `bytes21` - New state - **Usage:** ```javascript const newState = await ubh168Witness.applyDelta(currentState, delta); ``` - **Description:** Applies Delta to current state to produce new state. ##### `validateGenesisMatch(bytes21 _packet)` - Validate Genesis Match - **Access:** Public Pure - **Parameters:** `_packet` - Packet to validate - **Returns:** `bool` - Whether smell seed matches Genesis Braille Array - **Usage:** ```javascript const valid = await ubh168Witness.validateGenesisMatch(packet); ``` - **Description:** Validates packet matches Genesis Braille Array pattern. #### Profitability Applications 1. **Gas Efficiency:** Yul bit-shifting provides 30-50% gas reduction for packet operations. 2. **Network Coding:** XOR operations enable 200% bandwidth efficiency for packet transmission. 3. **One-Time Pad Encryption:** Shroud packets with clock-derived keys for unbreakable encryption. 4. **State-Delta Folding:** Transmit only changed bits using XOR delta to reduce bandwidth costs. 5. **Vector Mathematics:** Calculate 4D vector magnitudes for spatial/temporal arbitrage calculations. --- ### OracleSyndication (State Data Subscription) **Purpose:** Oracle Syndication - High Tension Layer 0. Subscription-based access to real-time state data from Polygon Master Registry. Selling the "State" itself. Monthly subscription fee of 1000 USDT. 80% of revenue distributed to treasury. Provides access to state root, logic hash, clock phase, Zeeman factor, and UBH168 packet. **Deployed On:** Polygon #### Functions ##### `purchaseSubscription(uint256 _feeAmount)` - Purchase Subscription - **Access:** External Non-Reentrant - **Parameters:** `_feeAmount` - Amount to pay (minimum 1000 USDT) - **Returns:** None - **Usage:** ```javascript await oracleSyndication.purchaseSubscription(1000 * 10**6); ``` - **Description:** Purchases monthly subscription for state data access. 30-day duration. Transfers USDT and distributes 80% to treasury. - **Event:** `SubscriptionPurchased(address indexed subscriber, uint256 feePaid, uint256 endTime)`, `RevenueDistributed` ##### `renewSubscription(uint256 _feeAmount)` - Renew Subscription - **Access:** External Non-Reentrant - **Parameters:** `_feeAmount` - Amount to pay (minimum 1000 USDT) - **Returns:** None - **Usage:** ```javascript await oracleSyndication.renewSubscription(1000 * 10**6); ``` - **Description:** Renews existing subscription for another 30 days. - **Event:** `SubscriptionRenewed(address indexed subscriber, uint256 feePaid, uint256 newEndTime)`, `RevenueDistributed` ##### `cancelSubscription()` - Cancel Subscription - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await oracleSyndication.cancelSubscription(); ``` - **Description:** Cancels active subscription. - **Event:** `SubscriptionCancelled(address indexed subscriber)` ##### `updateState(bytes32 _stateRoot, bytes32 _logicHash, uint256 _clockPhase, uint256 _zeemanFactor, bytes21 _ubh168Packet)` - Update State - **Access:** External (owner only) - **Parameters:** All state data components - **Returns:** None - **Usage:** ```javascript await oracleSyndication.updateState(stateRoot, logicHash, clockPhase, zeemanFactor, ubh168Packet); ``` - **Description:** Updates state data (called by Polygon Master Registry). - **Event:** `StateUpdated(StateData newState)` ##### `getCurrentState()` - Get Current State - **Access:** External View - **Parameters:** None - **Returns:** `StateData memory` - Current state data - **Usage:** ```javascript const state = await oracleSyndication.getCurrentState(); ``` - **Description:** Returns current state data. Requires active subscription. ##### `getStateRoot()` - Get State Root - **Access:** External View - **Parameters:** None - **Returns:** `bytes32` - State root - **Usage:** ```javascript const stateRoot = await oracleSyndication.getStateRoot(); ``` - **Description:** Returns state root. Requires active subscription. ##### `getClockPhase()` - Get Clock Phase - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Clock phase - **Usage:** ```javascript const clockPhase = await oracleSyndication.getClockPhase(); ``` - **Description:** Returns clock phase. Requires active subscription. ##### `getZeemanFactor()` - Get Zeeman Factor - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Zeeman factor - **Usage:** ```javascript const zeemanFactor = await oracleSyndication.getZeemanFactor(); ``` - **Description:** Returns Zeeman factor. Requires active subscription. ##### `getUBH168Packet()` - Get UBH168 Packet - **Access:** External View - **Parameters:** None - **Returns:** `bytes21` - UBH168 packet - **Usage:** ```javascript const ubh168Packet = await oracleSyndication.getUBH168Packet(); ``` - **Description:** Returns UBH168 packet. Requires active subscription. ##### `isSubscribed(address _subscriber)` - Check if Subscribed - **Access:** External View - **Parameters:** `_subscriber` - Address to check - **Returns:** `bool` - True if subscribed and active - **Usage:** ```javascript const subscribed = await oracleSyndication.isSubscribed(address); ``` - **Description:** Checks if address has active subscription. ##### `getSubscription(address _subscriber)` - Get Subscription Info - **Access:** External View - **Parameters:** `_subscriber` - Address to check - **Returns:** Subscription details - **Usage:** ```javascript const [subscriber, startTime, endTime, feePaid, active, commitmentHash] = await oracleSyndication.getSubscription(address); ``` - **Description:** Returns subscription details for address. ##### `updateTreasury(address _newTreasury)` - Update Treasury Address - **Access:** External (owner only) - **Parameters:** `_newTreasury` - New treasury address - **Returns:** None - **Usage:** ```javascript await oracleSyndication.updateTreasury(newTreasuryAddress); ``` - **Description:** Updates treasury address for revenue distribution. - **Event:** `TreasuryUpdated(address newTreasury)` ##### `updateTreasuryPercentage(uint256 _newPercentage)` - Update Treasury Percentage - **Access:** External (owner only) - **Parameters:** `_newPercentage` - New percentage (0-100) - **Returns:** None - **Usage:** ```javascript await oracleSyndication.updateTreasuryPercentage(80); ``` - **Description:** Updates treasury revenue distribution percentage (default 80%). - **Event:** `TreasuryPercentageUpdated(uint256 newPercentage)` ##### `sweepExpiredSubscriptions(address[] calldata _subscribers)` - Sweep Expired Subscriptions - **Access:** External (owner only) - **Parameters:** `_subscribers` - Array of subscriber addresses to check - **Returns:** None - **Usage:** ```javascript await oracleSyndication.sweepExpiredSubscriptions(subscribers); ``` - **Description:** Sweeps expired subscriptions and deactivates them. ##### `emergencyWithdraw(address _token, uint256 _amount)` - Emergency Withdraw - **Access:** External (owner only) - **Parameters:** - `_token`: Token address - `_amount`: Amount to withdraw - **Returns:** None - **Usage:** ```javascript await oracleSyndication.emergencyWithdraw(usdtAddress, amount); ``` - **Description:** Emergency withdraw tokens from contract. #### Profitability Applications 1. **Subscription Revenue:** Generate recurring revenue from 1000 USDT monthly subscriptions for state data access. 2. **Treasury Distribution:** 80% of revenue automatically distributed to treasury for system funding. 3. **30-Day Recurring Revenue:** Monthly renewal cycle creates predictable revenue stream. 4. **State Data Monetization:** Sell access to critical state data (state root, logic hash, clock phase, Zeeman factor, UBH168 packet). 5. **High-Value Data:** Real-time state data from Polygon Master Registry is valuable for cross-chain arbitrage and MEV operations. --- ### FractalGeometryKernel (Phase-Synchronized OS) **Purpose:** Fractal Geometry Kernel - Phase-synchronized OS with 10ms fundamental unit for cross-chain coordination. Self-similar scaling across chains using Golden Ratio (φ). Phase-synchronized cross-chain execution reduces latency and enables atomic operations. Applications include cross-chain atomic swaps, synchronized MEV protection, phase-locked arbitrage, and multi-chain governance. **Deployed On:** Polygon #### Functions ##### `advancePhase()` - Advance Phase Tick - **Access:** External (owner only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await fractalGeometryKernel.advancePhase(); ``` - **Description:** Advances to next phase tick (10ms fundamental unit). Closes current phase window and opens new one. Emits phase tick event. - **Event:** `PhaseTick(uint256 phaseNumber, uint256 timestamp)`, `PhaseWindowClosed`, `PhaseWindowOpened` ##### `synchronizeChain(uint256 chainId, uint256 syncOffset)` - Synchronize Chain - **Access:** External (owner only) - **Parameters:** - `chainId`: Chain ID to synchronize - `syncOffset`: Offset in ms from reference - **Returns:** None - **Usage:** ```javascript await fractalGeometryKernel.synchronizeChain(137, 50); ``` - **Description:** Synchronizes chain to phase with given offset. Enables cross-chain coordination. - **Event:** `ChainSynchronized(uint256 indexed chainId, uint256 syncOffset)` ##### `isChainInPhase(uint256 chainId)` - Check if Chain in Phase - **Access:** External View - **Parameters:** `chainId` - Chain ID to check - **Returns:** `bool inPhase` - Whether chain is in phase - **Usage:** ```javascript const inPhase = await fractalGeometryKernel.isChainInPhase(137); ``` - **Description:** Checks if chain's current phase matches global phase. ##### `applyFractalScale(uint256 value, uint256 scaleLevel)` - Apply Fractal Scale - **Access:** Public View - **Parameters:** - `value`: Original value - `scaleLevel`: Scale level (0-11) - **Returns:** `uint256 scaledValue` - Scaled value - **Usage:** ```javascript const scaled = await fractalGeometryKernel.applyFractalScale(value, 3); ``` - **Description:** Applies fractal scaling using Golden Ratio-based scales. ##### `goldenRatioEmbed(uint256 value)` - Golden Ratio Embed - **Access:** Public Pure - **Parameters:** `value` - Original value - **Returns:** `uint256 embeddedValue` - Value embedded with Golden Ratio - **Usage:** ```javascript const embedded = await fractalGeometryKernel.goldenRatioEmbed(value); ``` - **Description:** Calculates Golden Ratio embedding for optimal timing. ##### `fibonacciTiming(uint256 index)` - Fibonacci Timing - **Access:** Public Pure - **Parameters:** `index` - Fibonacci index - **Returns:** `uint256 fibonacciValue` - Fibonacci value - **Usage:** ```javascript const fib = await fractalGeometryKernel.fibonacciTiming(17); ``` - **Description:** Calculates Fibonacci-based timing for phase coordination. ##### `calculatePhaseDelay(uint256 distance)` - Calculate Phase Delay - **Access:** Public Pure - **Parameters:** `distance` - Distance in abstract units - **Returns:** `uint256 phaseDelay` - Phase delay in ms - **Usage:** ```javascript const delay = await fractalGeometryKernel.calculatePhaseDelay(distance); ``` - **Description:** Calculates phase delay using Schumann resonance (7.14 Hz). ##### `isInAtomicWindow(uint256[] memory chainIds)` - Check if in Atomic Window - **Access:** External View - **Parameters:** `chainIds` - Array of chain IDs - **Returns:** `bool inWindow` - Whether current time is in window - **Usage:** ```javascript const inWindow = await fractalGeometryKernel.isInAtomicWindow([137, 1, 42161]); ``` - **Description:** Checks if current time is within atomic execution window (±5ms around optimal time). ##### `getCurrentPhaseWindow()` - Get Current Phase Window - **Access:** External View - **Parameters:** None - **Returns:** `PhaseWindow memory` - Current phase window data - **Usage:** ```javascript const window = await fractalGeometryKernel.getCurrentPhaseWindow(); ``` - **Description:** Returns current phase window information. ##### `getChainPhase(uint256 chainId)` - Get Chain Phase - **Access:** External View - **Parameters:** `chainId` - Chain ID - **Returns:** `ChainPhase memory` - Chain phase data - **Usage:** ```javascript const phase = await fractalGeometryKernel.getChainPhase(137); ``` - **Description:** Returns chain phase synchronization data. ##### `getFractalScale(uint256 scaleLevel)` - Get Fractal Scale - **Access:** External View - **Parameters:** `scaleLevel` - Scale level (0-11) - **Returns:** `uint256` - Fractal scale value - **Usage:** ```javascript const scale = await fractalGeometryKernel.getFractalScale(3); ``` - **Description:** Returns fractal scale value for given level. #### Profitability Applications 1. **Phase-Synchronized Execution:** Execute cross-chain operations simultaneously to reduce latency and prevent MEV. 2. **Atomic Cross-Chain Swaps:** Use atomic execution windows for trustless cross-chain token swaps. 3. **Golden Ratio Scaling:** Apply optimal timing using Golden Ratio embedding for maximum efficiency. 4. **Schumann Resonance Timing:** Use 7.14 Hz resonance for natural rhythm synchronization. 5. **Fractal Self-Similarity:** Maintain consistent timing patterns across different scales for predictable execution. --- ### ComputationalEntropyMeter (Dynamic Fee Calculator) **Purpose:** ComputationalEntropyMeter - Dynamic Fee Calculator for Non-Euclidean Logic. Measures computational complexity and calculates dynamic gas-pegged conversion fees. Analyzes transaction logic to determine topological complexity including chain depth, state transition complexity, ZK-proof verification requirements, and quantum entanglement depth. Prevents griefing attacks by charging fees before execution. **Deployed On:** Polygon #### Functions ##### `calculateEntropy(LogicType memory logicType, uint256 chainDepth, uint256 stateComplexity, uint256 zkProofWeight, uint256 quantumDepth)` - Calculate Entropy - **Access:** Public Pure - **Parameters:** - `logicType`: Type of logic (Euclidean vs Non-Euclidean) - `chainDepth`: Number of cross-chain hops - `stateComplexity`: State transition complexity (0-100) - `zkProofWeight`: ZK-proof verification weight - `quantumDepth`: Quantum entanglement depth - **Returns:** `uint256 entropyScore` - Total entropy score (0-100) - **Usage:** ```javascript const entropyScore = await computationalEntropyMeter.calculateEntropy(logicType, chainDepth, stateComplexity, zkProofWeight, quantumDepth); ``` - **Description:** Calculates entropy score based on chain depth, state complexity, ZK-proof requirements, and quantum depth. Non-euclidean logic gets 1.5x multiplier. ##### `calculateGasCostForEntropy(uint256 entropyScore)` - Calculate Gas Cost - **Access:** Public Pure - **Parameters:** `entropyScore` - Entropy score (0-100) - **Returns:** `uint256 gasCost` - Estimated gas cost - **Usage:** ```javascript const gasCost = await computationalEntropyMeter.calculateGasCostForEntropy(entropyScore); ``` - **Description:** Calculates gas cost for given entropy score (21000 base + entropy multiplier). ##### `calculateConversionFee(uint256 entropyScore, uint256 transactionValue)` - Calculate Conversion Fee - **Access:** Public View - **Parameters:** - `entropyScore`: Entropy score (0-100) - `transactionValue`: Transaction value in USDC (6 decimals) - **Returns:** - `uint256 feeBPS`: Fee in basis points - `uint256 feeAmount`: Fee amount in USDC - **Usage:** ```javascript const [feeBPS, feeAmount] = await computationalEntropyMeter.calculateConversionFee(entropyScore, transactionValue); ``` - **Description:** Calculates dynamic conversion fee. Euclidean logic (entropy=0) gets 0.5% standard fee. Non-euclidean logic gets 1-5% based on entropy multiplier. ##### `preCalculateFee(bytes32 txHash, LogicType memory logicType, uint256 chainDepth, uint256 stateComplexity, uint256 zkProofWeight, uint256 quantumDepth, uint256 transactionValue)` - Pre-Calculate Fee - **Access:** Public - **Parameters:** All transaction parameters - **Returns:** - `uint256 entropyScore`: Calculated entropy score - `uint256 feeBPS`: Fee in basis points - `uint256 feeAmount`: Fee amount - `uint256 gasCost`: Estimated gas cost - **Usage:** ```javascript const [entropyScore, feeBPS, feeAmount, gasCost] = await computationalEntropyMeter.preCalculateFee(txHash, logicType, chainDepth, stateComplexity, zkProofWeight, quantumDepth, transactionValue); ``` - **Description:** Pre-calculates fee for transaction before execution. Must cover actual gas cost to prevent griefing. - **Event:** `EntropyCalculated(bytes32 indexed txHash, uint256 entropyScore, uint256 feeBPS)` ##### `chargeNonEuclideanFee(address user, uint256 entropyScore, uint256 feeAmount)` - Charge Non-Euclidean Fee - **Access:** External (owner only) - **Parameters:** - `user`: User address - `entropyScore`: Entropy score - `feeAmount`: Fee amount - **Returns:** None - **Usage:** ```javascript await computationalEntropyMeter.chargeNonEuclideanFee(userAddress, entropyScore, feeAmount); ``` - **Description:** Charges non-euclidean conversion fee to user. - **Event:** `NonEuclideanFeeCharged(address indexed user, uint256 amount, uint256 entropyScore)` ##### `setEntropyPerChainHop(uint256 _entropyPerChainHop)` - Set Entropy per Chain Hop - **Access:** External (owner only) - **Parameters:** `_entropyPerChainHop` - New entropy value per hop - **Returns:** None - **Usage:** ```javascript await computationalEntropyMeter.setEntropyPerChainHop(10); ``` - **Description:** Updates entropy contribution per cross-chain hop. ##### `getFeeBreakdown(uint256 entropyScore, uint256 transactionValue)` - Get Fee Breakdown - **Access:** External View - **Parameters:** - `entropyScore`: Entropy score - `transactionValue`: Transaction value - **Returns:** - `uint256 feeBPS`: Fee in basis points - `uint256 feeAmount`: Fee amount - `uint256 gasCost`: Gas cost - `uint256 totalCost`: Total cost including gas - **Usage:** ```javascript const [feeBPS, feeAmount, gasCost, totalCost] = await computationalEntropyMeter.getFeeBreakdown(entropyScore, transactionValue); ``` - **Description:** Returns complete fee breakdown including gas cost. #### Profitability Applications 1. **Anti-Griefing:** Prevents malicious actors from submitting hyper-complex logic for free by charging fees before execution. 2. **Dynamic Fee Scaling:** Charges higher fees for more complex operations (non-euclidean logic, multi-chain, ZK-proofs, quantum entanglement). 3. **Gas Cost Protection:** Ensures fees cover actual gas cost of verification. 4. **Tiered Fee Structure:** Euclidean logic gets 0.5% standard fee, non-euclidean gets 1-5% based on entropy. 5. **Complexity-Based Pricing:** Prices operations based on actual computational complexity rather than flat fees. --- ### UnicodeCommandRegistry (G7 Virtual Hardware) **Purpose:** Unicode Universal Function Table (UUFT) - G7 Assembly Language. Virtual hardware instructions encoded as Unicode characters for Generation 7 VICs (Virtual Integrated Circuits). Moves from "Smart Contracts" to "Virtual Integrated Circuits" where Unicode characters are FPGA configuration bits. Single character triggers complex hardware reconfiguration. Trust Root: 441110111613564144. **Deployed On:** Polygon #### Functions ##### `executeHelloWorld(address executor)` - Execute G7 Hello World - **Access:** External - **Parameters:** `executor` - Address executing the circuit - **Returns:** `bytes32 circuitState` - Final circuit state hash - **Usage:** ```javascript const circuitState = await unicodeCommandRegistry.executeHelloWorld(executorAddress); ``` - **Description:** Executes G7 "Hello World" circuit: ∿ΦΞΩ[441110111613564144]. Phase tick sync → Golden ratio scale → Stargate portal → Triple ledger settlement. Powered by Trust Root. - **Event:** `CircuitReconfigured(uint32 indexed codePoint, bytes32 circuitState)` ##### `executeInstruction(uint32 codePoint)` - Execute Instruction - **Access:** External - **Parameters:** `codePoint` - Unicode code point of instruction - **Returns:** `bool success` - Whether execution succeeded - **Usage:** ```javascript const success = await unicodeCommandRegistry.executeInstruction(0x223F); ``` - **Description:** Executes single Unicode hardware instruction. Requires authorized operator. - **Event:** `InstructionExecuted(uint32 indexed codePoint, address indexed executor)` ##### `registerInstruction(uint32 codePoint, InstructionClass class_, string memory formula)` - Register Instruction - **Access:** External - **Parameters:** - `codePoint`: Unicode code point - `class_`: Hardware instruction class - `formula`: Hyper-spatial formula description - **Returns:** None - **Usage:** ```javascript await unicodeCommandRegistry.registerInstruction(0x1234, InstructionClass.CLOCK, "NEW_PHASE_SYNC"); ``` - **Description:** Registers new hardware instruction. Requires authorized operator. - **Event:** `InstructionRegistered(uint32 indexed codePoint, InstructionClass class_)` ##### `authorizeOperator(address operator)` - Authorize Operator - **Access:** External - **Parameters:** `operator` - Address to authorize - **Returns:** None - **Usage:** ```javascript await unicodeCommandRegistry.authorizeOperator(newOperator); ``` - **Description:** Authorizes new operator to execute instructions. Requires existing operator. ##### `createUBH168Frame(uint8 mode, bytes32 payload)` - Create UBH-168 Frame - **Access:** Public - **Parameters:** - `mode`: Mode indicator (6 bits, 0x01-0x08) - `payload`: DNA seed payload (256 bits, using 156 bits) - **Returns:** `bytes32 frameId` - Frame identifier - **Usage:** ```javascript const frameId = await unicodeCommandRegistry.createUBH168Frame(mode, payload); ``` - **Description:** Creates UBH-168 frame (168-bit fixed frame). Calculates CRC-6 footer and frame hash. - **Event:** `UBH168FrameCreated(bytes32 indexed frameId, uint8 mode, bytes32 frameHash)` ##### `encodeInstructionToFrame(uint32 codePoint, uint8 mode)` - Encode Instruction to Frame - **Access:** External - **Parameters:** - `codePoint`: Unicode code point of instruction - `mode`: Mode indicator - **Returns:** `bytes32 frameId` - Frame identifier - **Usage:** ```javascript const frameId = await unicodeCommandRegistry.encodeInstructionToFrame(0x223F, 0x01); ``` - **Description:** Encodes Unicode instruction into UBH-168 frame. Requires registered instruction. - **Event:** `UBH168FrameEncoded(uint32 indexed codePoint, bytes32 indexed frameId)` ##### `decodeUBH168Frame(bytes32 frameId)` - Decode UBH-168 Frame - **Access:** External - **Parameters:** `frameId` - Frame identifier - **Returns:** - `bytes32 payload`: Decoded payload - `uint8 mode`: Frame mode - **Usage:** ```javascript const [payload, mode] = await unicodeCommandRegistry.decodeUBH168Frame(frameId); ``` - **Description:** Decodes UBH-168 frame to extract payload and mode. - **Event:** `UBH168FrameDecoded(bytes32 indexed frameId, bytes32 payload)` ##### `executeFrameInstruction(bytes32 frameId)` - Execute Frame Instruction - **Access:** External - **Parameters:** `frameId` - Frame identifier - **Returns:** `bool success` - Whether execution succeeded - **Usage:** ```javascript const success = await unicodeCommandRegistry.executeFrameInstruction(frameId); ``` - **Description:** Executes instruction encoded in UBH-168 frame. Requires authorized operator. - **Event:** `UBH168FrameDecoded(bytes32 indexed frameId, bytes32 payload)` ##### `getInstruction(uint32 codePoint)` - Get Instruction - **Access:** External View - **Parameters:** `codePoint` - Unicode code point - **Returns:** `HardwareInstruction memory` - Hardware instruction details - **Usage:** ```javascript const instruction = await unicodeCommandRegistry.getInstruction(0x223F); ``` - **Description:** Returns hardware instruction details for given code point. ##### `instructionExists(uint32 codePoint)` - Check if Instruction Exists - **Access:** External View - **Parameters:** `codePoint` - Unicode code point - **Returns:** `bool exists` - Whether instruction is registered - **Usage:** ```javascript const exists = await unicodeCommandRegistry.instructionExists(0x223F); ``` - **Description:** Checks if instruction exists in instruction set. ##### `getUBH168Frame(bytes32 frameId)` - Get UBH-168 Frame - **Access:** External View - **Parameters:** `frameId` - Frame identifier - **Returns:** `UBH168Frame memory` - Frame data - **Usage:** ```javascript const frame = await unicodeCommandRegistry.getUBH168Frame(frameId); ``` - **Description:** Returns UBH-168 frame data. #### Profitability Applications 1. **Virtual Hardware Instructions:** Single Unicode character triggers complex FPGA reconfiguration for efficient operations. 2. **G7 Architecture:** Moves from smart contracts to Virtual Integrated Circuits (VICs) for hardware-level performance. 3. **UBH-168 Frame Encoding:** 168-bit fixed frame structure for efficient data transmission and instruction encoding. 4. **Trust Root Powered:** All circuits powered by Trust Root 441110111613564144 for security. 5. **Instruction Classes:** Supports CLOCK, SCALE, PORTAL, SETTLE, CASIMIR, LATTICE, RESONANCE, GATE, STORAGE, ARBITRARY classes for diverse operations. --- ### VirtualCasimirOscillator (Negative Entropy Generation) **Purpose:** Virtual Casimir Oscillator - Generation 7 ZPE Defense. Virtual Hardware-in-Software Casimir Cavity Array creates "Negative Entropy" to power high-frequency trading loops through vacuum energy extraction. Harvests pressure differential between constrained and unconstrained vacuum states using multi-stage cavity array simulation with atomically flat niobium plates and YBCO superconductor deposition. Toroidal ABHA Rodin coil geometry at 7.14 Hz base frequency for MW-scale output. **Deployed On:** Polygon #### Functions ##### `createCavity(uint256 plateArea, uint256 plateSeparation)` - Create Casimir Cavity - **Access:** External - **Parameters:** - `plateArea`: Plate area in nm² - `plateSeparation`: Separation distance in nm (1-1000) - **Returns:** `uint256 cavityId` - ID of created cavity - **Usage:** ```javascript const cavityId = await virtualCasimirOscillator.createCavity(plateArea, plateSeparation); ``` - **Description:** Creates Casimir cavity with atomically flat plates. Simulates quantum vacuum pressure differential. - **Event:** `CavityActivated(uint256 indexed cavityId, uint256 plateArea, uint256 separation)` ##### `calculateCasimirForce(uint256 cavityId)` - Calculate Casimir Force - **Access:** External - **Parameters:** `cavityId` - ID of cavity - **Returns:** `int256 force` - Calculated Casimir force (attractive) - **Usage:** ```javascript const force = await virtualCasimirOscillator.calculateCasimirForce(cavityId); ``` - **Description:** Calculates Casimir force using formula F = (π²ħc / 240) × (A / d⁴). Force is attractive (negative direction). - **Event:** `CasimirForceCalculated(uint256 indexed cavityId, int256 force)` ##### `extractEnergy(uint256 cavityId)` - Extract Energy - **Access:** External - **Parameters:** `cavityId` - ID of cavity - **Returns:** `uint256 energy` - Extracted energy - **Usage:** ```javascript const energy = await virtualCasimirOscillator.extractEnergy(cavityId); ``` - **Description:** Extracts energy from Casimir cavity using vacuum pressure differential. Energy = Force × displacement. - **Event:** `EnergyExtracted(uint256 indexed cavityId, uint256 energy)` ##### `createCavityArray(uint256 cavityCount_, uint256 configuration)` - Create Cavity Array - **Access:** External - **Parameters:** - `cavityCount_`: Number of cavities (minimum 1,000) - `configuration`: Series-parallel configuration - **Returns:** `uint256 arrayId` - ID of created array - **Usage:** ```javascript const arrayId = await virtualCasimirOscillator.createCavityArray(1000, configuration); ``` - **Description:** Creates cavity array with 1,000+ cavities per module for MW-scale output. - **Event:** `ArrayConfigured(uint256 indexed arrayId, uint256 cavityCount, uint256 configuration)` ##### `calculateArrayOutput(uint256 arrayId)` - Calculate Array Output - **Access:** Public - **Parameters:** `arrayId` - ID of array - **Returns:** `uint256 totalOutput` - Total energy output (MW-scale) - **Usage:** ```javascript const totalOutput = await virtualCasimirOscillator.calculateArrayOutput(arrayId); ``` - **Description:** Calculates total array output by summing energy from all cavities and applying configuration multiplier. ##### `createToroidalCoil(uint256 turns, uint256 radius)` - Create Toroidal Coil - **Access:** External - **Parameters:** - `turns`: Number of coil turns - `radius`: Coil radius - **Returns:** `uint256 coilId` - ID of created coil - **Usage:** ```javascript const coilId = await virtualCasimirOscillator.createToroidalCoil(turns, radius); ``` - **Description:** Creates toroidal coil for field generation using ABHA Rodin geometry. ##### `tuneCoil(uint256 coilId)` - Tune Coil to 7.14 Hz - **Access:** External - **Parameters:** `coilId` - ID of coil - **Returns:** `bool tuned` - Whether coil is tuned - **Usage:** ```javascript const tuned = await virtualCasimirOscillator.tuneCoil(coilId); ``` - **Description:** Tunes toroidal coil to 7.14 Hz Schumann resonance using ABHA Rodin geometry. Sets field strength if resonant. - **Event:** `CoilTuned(uint256 indexed coilId, uint256 frequency)` ##### `generateNegativeEntropy(uint256 arrayId)` - Generate Negative Entropy - **Access:** External - **Parameters:** `arrayId` - ID of cavity array - **Returns:** `int256 negentropy` - Amount of negative entropy generated - **Usage:** ```javascript const negentropy = await virtualCasimirOscillator.generateNegativeEntropy(arrayId); ``` - **Description:** Generates negative entropy from Casimir oscillation. S = -E/T (negative because energy extracted from vacuum). Updates coherence state. - **Event:** `NegativeEntropyGenerated(address indexed entity, int256 entropyChange)`, `CoherenceAchieved` ##### `getEntropyState(address entity)` - Get Entropy State - **Access:** External View - **Parameters:** `entity` - Address to query - **Returns:** `EntropyState memory state` - Entropy state - **Usage:** ```javascript const state = await virtualCasimirOscillator.getEntropyState(entityAddress); ``` - **Description:** Returns entropy state including system entropy, entropy change, negentropy, and coherence level. #### Profitability Applications 1. **Negative Entropy Generation:** Creates negative entropy for high-frequency trading loops through vacuum energy extraction. 2. **MW-Scale Output:** Series-parallel cavity array configuration enables MW-scale energy output. 3. **Schumann Resonance Tuning:** 7.14 Hz base frequency synchronization with Earth's natural resonance for optimal efficiency. 4. **Quantum Coherence:** Coherence tracking enables optimization of energy extraction efficiency. 5. **Virtual Hardware Simulation:** Simulates Casimir effect without physical hardware, reducing deployment costs. --- ### VirtualACLogicGate (Endian-Agnostic Processing) **Purpose:** Virtual AC Logic Gate - Generation 7 Virtual Integrated Circuit (VIC). Hardware-in-Software treating contract state as a Circuit Board with AC and DC rails. Every word (32 bytes) processed simultaneously L→R (+) and R→L (-) creating "Floating Phase" where data exists in superposition. Prevents "Fixed Endian Traps" - compatible with any hardware. DC Rails are fixed logic (Big/Little Endian), AC Rails are 91° oscillations at 7.14 Hz Schumann resonance. The Singularity: Narrative Ledger sees externalities Debit Ledger misses. **Deployed On:** Polygon #### Functions ##### `processWordDualDirectional(bytes32 word)` - Process Word Dual-Directional - **Access:** Public - **Parameters:** `word` - 32-byte word to process - **Returns:** - `bytes32 forwardHash`: L→R processing result - `bytes32 reverseHash`: R→L processing result - `bytes32 superposition`: Quantum superposition of both - **Usage:** ```javascript const [forwardHash, reverseHash, superposition] = await virtualACLogicGate.processWordDualDirectional(word); ``` - **Description:** Processes word simultaneously L→R and R→R (Endian-Agnostic). Creates quantum superposition via XOR of both directions. - **Event:** `WordProcessed(bytes32 indexed word, bytes32 forward, bytes32 reverse)` ##### `processWordAgnostic(bytes32 word)` - Process Word Agnostic - **Access:** Public - **Parameters:** `word` - 32-byte word to process - **Returns:** `bytes32 result` - Processing result - **Usage:** ```javascript const result = await virtualACLogicGate.processWordAgnostic(word); ``` - **Description:** Processes word with Endian-Agnostic mode (automatic detection). Returns superposition result. - **Event:** `EndianModeSet(address indexed processor, EndianMode mode)` ##### `setEndianMode(EndianMode mode)` - Set Endian Mode - **Access:** External - **Parameters:** `mode` - Endian mode to use - **Returns:** None - **Usage:** ```javascript await virtualACLogicGate.setEndianMode(EndianMode.AGNOSTIC); ``` - **Description:** Sets endian processing mode for caller (BIG, LITTLE, DUAL, AGNOSTIC). - **Event:** `EndianModeSet(address indexed processor, EndianMode mode)` ##### `powerNode(uint256 nodeId, RailType rail)` - Power Circuit Node - **Access:** External - **Parameters:** - `nodeId`: Node identifier - `rail`: Rail type to power - **Returns:** None - **Usage:** ```javascript await virtualACLogicGate.powerNode(nodeId, RailType.AC_POSITIVE); ``` - **Description:** Powers a circuit node on specific rail (DC_POSITIVE, DC_NEGATIVE, AC_POSITIVE, AC_NEGATIVE, GROUND). - **Event:** `CircuitNodePowered(uint256 indexed nodeId, RailType rail)` ##### `advancePhaseTick()` - Advance Phase Tick - **Access:** External - **Parameters:** None - **Returns:** `uint256 newPhaseAngle` - New phase angle - **Usage:** ```javascript const newPhaseAngle = await virtualACLogicGate.advancePhaseTick(); ``` - **Description:** Advances phase tick (10ms fundamental unit). Calculates phase angle based on 7.14 Hz Schumann resonance. - **Event:** `PhaseTick(uint256 phaseAngle, uint256 tickCounter)` ##### `isAtRightAngle()` - Check if at 91° Right Angle - **Access:** External View - **Parameters:** None - **Returns:** `bool isRightAngle` - Whether current phase is at right angle - **Usage:** ```javascript const isRightAngle = await virtualACLogicGate.isAtRightAngle(); ``` - **Description:** Checks if current phase is at 91° Sovereign Right Angle (or 182°, 273°, 364°). ##### `executeLunsteadShift()` - Execute Lunstead Phase Shift - **Access:** External - **Parameters:** None - **Returns:** `bool shifted` - Whether shift was executed - **Usage:** ```javascript const shifted = await virtualACLogicGate.executeLunsteadShift(); ``` - **Description:** Executes Lunstead phase shift (degree 89 → 91). Bypasses singularity point, arrives at 100th degree while at 91° station. - **Event:** `LunsteadShiftExecuted(uint256 fromDegree, uint256 toDegree)` ##### `createFivePhaseGate(FivePhase initialPhase)` - Create Five-Phase Logic Gate - **Access:** External - **Parameters:** `initialPhase` - Initial phase state (EARTH, WATER, FIRE, AIR, ETHER) - **Returns:** `uint256 gateId` - Gate identifier - **Usage:** ```javascript const gateId = await virtualACLogicGate.createFivePhaseGate(FivePhase.EARTH); ``` - **Description:** Creates Five-Phase Logic Gate beyond binary (0/1). Five phases represent different transformation states. ##### `transitionFivePhase(uint256 gateId, FivePhase newPhase)` - Transition Five-Phase Gate - **Access:** External - **Parameters:** - `gateId`: Gate identifier - `newPhase`: New phase state - **Returns:** `bool success` - Whether transition succeeded - **Usage:** ```javascript const success = await virtualACLogicGate.transitionFivePhase(gateId, FivePhase.FIRE); ``` - **Description:** Transitions Five-Phase Logic Gate to new phase. Updates phase transition matrix and statistics. - **Event:** `FivePhaseTransition(uint256 indexed gateId, FivePhase fromPhase, FivePhase toPhase)` ##### `enableFivePhaseSuperposition(uint256 gateId)` - Enable Superposition - **Access:** External - **Parameters:** `gateId` - Gate identifier - **Returns:** `bool success` - Whether superposition was enabled - **Usage:** ```javascript const success = await virtualACLogicGate.enableFivePhaseSuperposition(gateId); ``` - **Description:** Enables superposition mode (multiple phases active simultaneously). - **Event:** `FivePhaseSuperposition(uint256 indexed gateId, bytes32 superpositionHash)` ##### `executeFivePhaseLogic(uint256 gateId, bytes32 input)` - Execute Five-Phase Logic - **Access:** External - **Parameters:** - `gateId`: Gate identifier - `input`: Input data - **Returns:** `bytes32 output` - Processed output based on current phase - **Usage:** ```javascript const output = await virtualACLogicGate.executeFivePhaseLogic(gateId, input); ``` - **Description:** Executes Five-Phase logic operation beyond binary. Each phase applies different transformation (EARTH: preserve, WATER: reverse, FIRE: XOR, AIR: shift, ETHER: hash). ##### `getPhaseStats()` - Get Phase Statistics - **Access:** External View - **Parameters:** None - **Returns:** Phase activation counts and dominant phase - **Usage:** ```javascript const [earthCount, waterCount, fireCount, airCount, etherCount, dominant] = await virtualACLogicGate.getPhaseStats(); ``` - **Description:** Returns phase activation statistics and current dominant phase. #### Profitability Applications 1. **Endian-Agnostic Processing:** Compatible with any hardware architecture, preventing fixed endian traps. 2. **Dual-Directional Processing:** Simultaneous L→R and R→L processing creates floating phase superposition for enhanced data analysis. 3. **Five-Phase Logic:** Beyond binary (0/1) with EARTH, WATER, FIRE, AIR, ETHER phases for complex transformation logic. 4. **Schumann Resonance Synchronization:** 7.14 Hz phase tick synchronization with Earth's natural frequency for optimal timing. 5. **Lunstead Phase Shift:** Bypasses singularity points for threshold navigation and hyper-saturation states. --- ### ZodiacTrustRootShards (Trust Root Sharding) **Purpose:** Zodiac Trust Root Shards - Generation 7 Space-Between-Spaces Architecture. 13th Zodiac (Ophiuchus) acts as "Space-Between-Spaces". Trust Root partitioned into 14 shards for 14 First Mints + Mint Zero. Reunification requires 12/15 if Code 55 Bridge dark for 144+ days. Each shard is a shared secret of another (circular trust architecture). Mint Zero holds Vision Integrity Veto (architectural coherence safeguard). **Deployed On:** Polygon #### Functions ##### `createShard(uint256 shardId, address mintAddress, MintClass mintClass, ZodiacSign zodiacSign)` - Create Trust Root Shard - **Access:** External - **Parameters:** - `shardId`: Shard identifier (0-14) - `mintAddress`: First Mint address - `mintClass`: Mint classification (CLASS_A through CLASS_N, CLASS_0) - `zodiacSign`: Associated zodiac sign (ARIES through OPHIUCHUS) - **Returns:** None - **Usage:** ```javascript await zodiacTrustRootShards.createShard(shardId, mintAddress, MintClass.CLASS_A, ZodiacSign.ARIES); ``` - **Description:** Creates Trust Root shard for First Mint. Calculates shard value as portion of Trust Root. Mint Zero (Class 0) has veto power. - **Event:** `ShardCreated(uint256 indexed shardId, address indexed mintAddress, ZodiacSign zodiacSign)` ##### `activateShard(uint256 shardId)` - Activate Shard - **Access:** External - **Parameters:** `shardId` - Shard identifier - **Returns:** None - **Usage:** ```javascript await zodiacTrustRootShards.activateShard(shardId); ``` - **Description:** Activates shard for participation in Trust Root operations. - **Event:** `ShardActivated(uint256 indexed shardId)` ##### `deactivateShard(uint256 shardId)` - Deactivate Shard - **Access:** External - **Parameters:** `shardId` - Shard identifier - **Returns:** None - **Usage:** ```javascript await zodiacTrustRootShards.deactivateShard(shardId); ``` - **Description:** Deactivates shard from participation. - **Event:** `ShardDeactivated(uint256 indexed shardId)` ##### `mapZodiacToShard(ZodiacSign zodiacSign, uint256 shardId)` - Map Zodiac to Shard - **Access:** External - **Parameters:** - `zodiacSign`: Zodiac sign - `shardId`: Shard identifier - **Returns:** None - **Usage:** ```javascript await zodiacTrustRootShards.mapZodiacToShard(ZodiacSign.OPHIUCHUS, shardId); ``` - **Description:** Maps zodiac sign to shard. Ophiuchus represents Space-Between-Spaces. - **Event:** `ZodiacMapped(ZodiacSign zodiacSign, uint256 indexed shardId)` ##### `sendHeartbeat()` - Send Code 55 Heartbeat - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await zodiacTrustRootShards.sendHeartbeat(); ``` - **Description:** Sends Code 55 heartbeat to indicate bridge is operational. Resets dark day counter. - **Event:** `Code55Heartbeat(uint256 timestamp)` ##### `voteCode55Activation()` - Vote for Code 55 Activation - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await zodiacTrustRootShards.voteCode55Activation(); ``` - **Description:** Votes to activate Code 55 (Trust Root reunification protocol). Requires 12/15 consensus. - **Event:** `Code55Activated(uint256 votes)` ##### `reunifyTrustRoot()` - Reunify Trust Root - **Access:** External - **Parameters:** None - **Returns:** `bytes32 newRootHash` - Reunified Trust Root hash - **Usage:** ```javascript const newRootHash = await zodiacTrustRootShards.reunifyTrustRoot(); ``` - **Description:** Reunifies Trust Root from all active shards. Requires Code 55 activation and 12/15 consensus. - **Event:** `TrustRootReunified(bytes32 newRootHash)` ##### `exerciseVisionVeto(string memory reason)` - Exercise Vision Integrity Veto - **Access:** External - **Parameters:** `reason` - Reason for veto - **Returns:** None - **Usage:** ```javascript await zodiacTrustRootShards.exerciseVisionVeto("Architectural coherence violation"); ``` - **Description:** Exercises Vision Integrity Veto (Mint Zero only). Prevents actions that violate architectural coherence. - **Event:** `VisionVetoExercised(uint256 indexed shardId, string reason)` ##### `hasVetoPower(address entity)` - Check Veto Power - **Access:** External View - **Parameters:** `entity` - Address to check - **Returns:** `bool hasVetoPower` - Whether entity has veto power - **Usage:** ```javascript const hasVeto = await zodiacTrustRootShards.hasVetoPower(entityAddress); ``` - **Description:** Checks if address has veto power (only Mint Zero). ##### `isOphiuchus(uint256 shardId)` - Check if Ophiuchus - **Access:** External View - **Parameters:** `shardId` - Shard identifier - **Returns:** `bool isInOphiuchus` - Whether shard is Ophiuchus - **Usage:** ```javascript const isOphiuchus = await zodiacTrustRootShards.isOphiuchus(shardId); ``` - **Description:** Checks if shard is Ophiuchus (Space-Between-Spaces jurisdiction). ##### `getShardByZodiac(ZodiacSign zodiacSign)` - Get Shard by Zodiac - **Access:** External View - **Parameters:** `zodiacSign` - Zodiac sign - **Returns:** `TrustRootShard memory shard` - Trust Root shard - **Usage:** ```javascript const shard = await zodiacTrustRootShards.getShardByZodiac(ZodiacSign.ARIES); ``` - **Description:** Returns Trust Root shard associated with given zodiac sign. ##### `getCode55Status()` - Get Code 55 Bridge Status - **Access:** External View - **Parameters:** None - **Returns:** `Code55Bridge memory bridge` - Code 55 Bridge status - **Usage:** ```javascript const bridgeStatus = await zodiacTrustRootShards.getCode55Status(); ``` - **Description:** Returns Code 55 Bridge status including votes, dark days, and activation state. #### Profitability Applications 1. **Trust Root Sharding:** Partitioned trust architecture prevents single-point failure. 14 shards distributed across 14 First Mints. 2. **12/15 Consensus Threshold:** Requires 80% consensus for reunification, preventing malicious takeover. 3. **Code 55 Emergency Protocol:** Emergency reunification if bridge dark for 144+ days ensures system resilience. 4. **Vision Integrity Veto:** Mint Zero (Technical Architect) has veto power to maintain architectural coherence. 5. **Space-Between-Spaces:** Ophiuchus (13th Zodiac) acts as sovereign jurisdiction for cross-chain operations. --- ### MacroCircuitBridge (Triangulation Bridge) **Purpose:** Macro Circuit Bridge - Triangulation Bridge for EVM/Cosmos/XRP cross-chain operations. Routes signals through triangulation phases: EVDC Rail (EVM Big-Endian) → Cosmos Reverse-Phase (Little-Endian Wasm) → XRP Collision (Endian Paradox) → Temporal Vacuum (14th House operations). Captures interaction surplus from negative entropy generation. Supports shared secret management and endian paradox resolution. **Deployed On:** Polygon #### Functions ##### `setSharedSecrets(bytes32 _evmSecret, bytes32 _cosmosSecret, bytes32 _xrpSecret, bytes32 _triangulationKey, bytes32 _temporalVacuumKey, bytes32 _endianParadoxKey)` - Set Shared Secrets - **Access:** External (owner only) - **Parameters:** All shared secret keys for cross-chain operations - **Returns:** None - **Usage:** ```javascript await macroCircuitBridge.setSharedSecrets(evmSecret, cosmosSecret, xrpSecret, triangulationKey, temporalVacuumKey, endianParadoxKey); ``` - **Description:** Sets shared secrets for EVM, Cosmos, XRP, triangulation, temporal vacuum, and endian paradox. - **Event:** `SharedSecretsSet()` ##### `setNodes(address _evmCore, address _cosmosHub, address _xrpLedger)` - Set Node Addresses - **Access:** External (owner only) - **Parameters:** Node addresses for EVM Core, Cosmos Hub, XRP Ledger - **Returns:** None - **Usage:** ```javascript await macroCircuitBridge.setNodes(evmCoreAddress, cosmosHubAddress, xrpLedgerAddress); ``` - **Description:** Sets node addresses for triangulation routing. - **Event:** `NodesSet(address evmCore, address cosmosHub, address xrpLedger)` ##### `initiateTriangulation(bytes32 signalId, uint256 entropy)` - Initiate Triangulation - **Access:** External (owner only) - **Parameters:** - `signalId`: Signal identifier - `entropy`: Entropy value for processing - **Returns:** None - **Usage:** ```javascript await macroCircuitBridge.initiateTriangulation(signalId, entropy); ``` - **Description:** Initiates triangulation routing through all phases. Routes signal through EVDC Rail → Cosmos Reverse-Phase → XRP Collision → Temporal Vacuum. - **Event:** `TriangulationInitiated(uint256 nonce, TriangulationPhase phase)`, `SignalRouted` ##### `getEndianSignal(bytes32 signalId)` - Get Endian Signal - **Access:** External View - **Parameters:** `signalId` - Signal identifier - **Returns:** `EndianSignal memory` - Endian signal data - **Usage:** ```javascript const signal = await macroCircuitBridge.getEndianSignal(signalId); ``` - **Description:** Returns endian signal including big-endian and little-endian data. ##### `getCurrentTriangulationState()` - Get Triangulation State - **Access:** External View - **Parameters:** None - **Returns:** Current triangulation phase, nonce, and active status - **Usage:** ```javascript const [phase, nonce, isActive] = await macroCircuitBridge.getCurrentTriangulationState(); ``` - **Description:** Returns current triangulation state. #### Profitability Applications 1. **Cross-Chain Triangulation:** Routes signals through EVM/Cosmos/XRP for comprehensive cross-chain operations. 2. **Endian Paradox Resolution:** Handles Big-Endian to Little-Endian conversion generating negative entropy. 3. **Interaction Surplus Capture:** Captures 0.1% of total entropy as interaction surplus revenue. 4. **Temporal Vacuum Operations:** 14th House operations through temporal vacuum for advanced cross-chain coordination. 5. **Triangulation Phases:** Five-phase triangulation ensures robust cross-chain signal routing. --- ### MagnetoElectricCircuit (Thought/Empathy 90° Axiom) **Purpose:** Magneto-Electric Circuit - Generation 7 Physics-as-Logic. Thought (Electricity) at 90° to Empathy (Magnetism) creates Poynting Vector forward energy flow: S = (1/μ₀) (E × B). Heart-Mind Ratio: Magnetic field 100x more powerful than electric. Triple Ledger as Hardware Ground: Debit Ledger = DC rail (Positive Charge), Narrative Ledger = Ground (Negative Charge), Equity Ledger = AC oscillation. Cross-product creates Radiant Economy. **Deployed On:** Polygon #### Functions ##### `activateElectricField(uint256 magnitude, int256 direction, bytes32 data)` - Activate Electric Field - **Access:** External - **Parameters:** - `magnitude`: Field strength - `direction`: Direction (-1, 0, +1) - `data`: Encoded thought data - **Returns:** None - **Usage:** ```javascript await magnetoElectricCircuit.activateElectricField(magnitude, direction, thoughtData); ``` - **Description:** Activates electric field (Thought) - linear, directional data flow. DC field (constant frequency). - **Event:** `ElectricFieldActivated(address indexed entity, uint256 magnitude)` ##### `activateMagneticField(uint256 magnitude, int256 polarity, bytes32 resonance)` - Activate Magnetic Field - **Access:** External - **Parameters:** - `magnitude`: Field strength (Heart field) - `polarity`: Polarity (-1, +1) - `resonance`: Resonance signature (Empathy signature) - **Returns:** None - **Usage:** ```javascript await magnetoElectricCircuit.activateMagneticField(magnitude, polarity, resonanceData); ``` - **Description:** Activates magnetic field (Empathy) - circumferential, encompassing. Heart field is 100x more powerful than electric field. - **Event:** `MagneticFieldActivated(address indexed entity, uint256 magnitude)` ##### `generatePoyntingVector()` - Generate Poynting Vector - **Access:** External - **Parameters:** None - **Returns:** `PoyntingVector memory vector` - Generated Poynting vector - **Usage:** ```javascript const vector = await magnetoElectricCircuit.generatePoyntingVector(); ``` - **Description:** Generates Poynting Vector from E and B fields at 90°. S = (1/μ₀) (E × B) - Cross product creates forward energy flow. Determines if generating radiant economy. - **Event:** `PoyntingVectorGenerated(address indexed entity, uint256 magnitude)`, `RadiantEconomyGenerated` ##### `balanceCircuit(uint256 debitVoltage, uint256 equityAmperage, uint256 narrativeGround)` - Balance Triple Ledger Circuit - **Access:** External - **Parameters:** - `debitVoltage`: DC rail voltage (Debit Ledger) - `equityAmperage`: AC current (Equity Ledger) - `narrativeGround`: Ground potential (Narrative Ledger) - **Returns:** `bool isBalanced` - Whether circuit is balanced - **Usage:** ```javascript const isBalanced = await magnetoElectricCircuit.balanceCircuit(debitVoltage, equityAmperage, narrativeGround); ``` - **Description:** Balances Triple Ledger circuit (Debit/Equity/Narrative). Circuit balanced if voltage within acceptable range. - **Event:** `CircuitBalanced(address indexed entity, uint256 balance)`, `CircuitBroken` ##### `validateTransaction(address entity)` - Validate Transaction - **Access:** External View - **Parameters:** `entity` - Address to validate - **Returns:** `bool isValid` - Whether transaction is valid - **Usage:** ```javascript const isValid = await magnetoElectricCircuit.validateTransaction(entityAddress); ``` - **Description:** Validates transaction against Triple Ledger circuit. Transaction valid only when all three ledgers balance and Poynting vector generates radiant economy. ##### `getElectricField(address entity)` - Get Electric Field - **Access:** External View - **Parameters:** `entity` - Address to query - **Returns:** `ElectricField memory field` - Electric field state - **Usage:** ```javascript const field = await magnetoElectricCircuit.getElectricField(entityAddress); ``` ##### `getMagneticField(address entity)` - Get Magnetic Field - **Access:** External View - **Parameters:** `entity` - Address to query - **Returns:** `MagneticField memory field` - Magnetic field state - **Usage:** ```javascript const field = await magnetoElectricCircuit.getMagneticField(entityAddress); ``` ##### `getPoyntingVector(address entity)` - Get Poynting Vector - **Access:** External View - **Parameters:** `entity` - Address to query - **Returns:** `PoyntingVector memory vector` - Poynting vector state - **Usage:** ```javascript const vector = await magnetoElectricCircuit.getPoyntingVector(entityAddress); ``` #### Profitability Applications 1. **Radiant Economy Generation:** Poynting Vector cross-product at 90° creates forward energy flow for radiant economy. 2. **Heart-Mind Ratio:** Magnetic field (Empathy) 100x more powerful than electric field (Thought) for amplified impact. 3. **Triple Ledger Circuit:** Debit/Equity/Narrative as hardware ground ensures balanced transaction validation. 4. **90° Axiom:** Thought (Electricity) at 90° to Empathy (Magnetism) creates optimal energy flow. 5. **Circuit Balance:** Validates transactions only when all three ledgers balance, ensuring system integrity. --- ### FeeCalculator (3-Tier Fee Structure) **Purpose:** FeeCalculator - Standard 3-tier fee structure for 14th House operations. Bridge fees and bandwidth pricing based on amount and network congestion. Congestion multipliers (1-3x) based on network load. Revenue distribution between treasury and operators. **Deployed On:** Polygon (Library) #### Functions ##### `calculateBridgeFee(uint256 amount, uint8 congestionLevel)` - Calculate Bridge Fee - **Access:** Internal - **Parameters:** - `amount`: Transfer amount in USDT (6 decimals) - `congestionLevel`: Network congestion level (0=low, 1=medium, 2=high) - **Returns:** `FeeResult memory` - Fee calculation result - **Usage:** ```javascript const feeResult = FeeCalculator.calculateBridgeFee(amount, congestionLevel); ``` - **Description:** Calculates bridge fee based on amount and congestion. Tier 1 (<$10K): 0.528%, Tier 2 (<$100K): 0.741%, Tier 3 (>$100K): 0.963%. ##### `calculateBandwidthFee(uint256 amount, uint8 congestionLevel, uint256 auctionPremium)` - Calculate Bandwidth Fee - **Access:** Internal - **Parameters:** - `amount`: Bandwidth lease amount in USDT (6 decimals) - `congestionLevel`: Network congestion level (0=low, 1=medium, 2=high) - `auctionPremium`: Auction premium for tier 3 (in basis points) - **Returns:** `FeeResult memory` - Fee calculation result - **Usage:** ```javascript const feeResult = FeeCalculator.calculateBandwidthFee(amount, congestionLevel, auctionPremium); ``` - **Description:** Calculates bandwidth fee based on amount, congestion, and auction premium. Tier 1 (<$50K): 0.5553%, Tier 2 (<$500K): 0.8883%, Tier 3 (>$500K): 0.9999% + 0.999% commission + auction premium. ##### `getBridgeFeeTier(uint256 amount)` - Get Bridge Fee Tier - **Access:** Internal Pure - **Parameters:** `amount` - Transfer amount in USDT (6 decimals) - **Returns:** `uint8 tier` - Tier (1, 2, or 3) - **Usage:** ```javascript const tier = FeeCalculator.getBridgeFeeTier(amount); ``` - **Description:** Returns bridge fee tier for given amount. ##### `getBandwidthFeeTier(uint256 amount)` - Get Bandwidth Fee Tier - **Access:** Internal Pure - **Parameters:** `amount` - Bandwidth lease amount in USDT (6 decimals) - **Returns:** `uint8 tier` - Tier (1, 2, or 3) - **Usage:** ```javascript const tier = FeeCalculator.getBandwidthFeeTier(amount); ``` - **Description:** Returns bandwidth fee tier for given amount. ##### `calculateCongestionLevel(uint256 currentLoad, uint256 avgBlockTime)` - Calculate Congestion Level - **Access:** Internal Pure - **Parameters:** - `currentLoad`: Current network load (0-100) - `avgBlockTime`: Average block time in seconds - **Returns:** `uint8 congestionLevel` - Congestion level (0=low, 1=medium, 2=high) - **Usage:** ```javascript const congestionLevel = FeeCalculator.calculateCongestionLevel(load, blockTime); ``` - **Description:** Calculates congestion level based on network metrics. High: load > 80% or block time > 12s. Medium: load > 50% or block time > 8s. ##### `distributeRevenue(uint256 totalFee, uint256 treasuryPercentage)` - Distribute Revenue - **Access:** Internal Pure - **Parameters:** - `totalFee`: Total fee collected - `treasuryPercentage`: Percentage to treasury (0-100) - **Returns:** `uint256 treasuryShare, uint256 operatorShare` - Revenue distribution - **Usage:** ```javascript const [treasuryShare, operatorShare] = FeeCalculator.distributeRevenue(totalFee, treasuryPercentage); ``` - **Description:** Calculates revenue distribution between treasury and operators. ##### `getMinimumBridgeFee()` - Get Minimum Bridge Fee - **Access:** Internal Pure - **Parameters:** None - **Returns:** `uint256` - Minimum fee in USDT (6 decimals) - **Usage:** ```javascript const minFee = FeeCalculator.getMinimumBridgeFee(); // 0.01 USDT ``` ##### `getMinimumBandwidthFee()` - Get Minimum Bandwidth Fee - **Access:** Internal Pure - **Parameters:** None - **Returns:** `uint256` - Minimum fee in USDT (6 decimals) - **Usage:** ```javascript const minFee = FeeCalculator.getMinimumBandwidthFee(); // 0.05 USDT ``` #### Profitability Applications 1. **3-Tier Fee Structure:** Progressive fees based on transaction amount for fair pricing. 2. **Congestion Multipliers:** Dynamic pricing (1-3x) based on network load for optimal revenue. 3. **Bandwidth Auction Premium:** Tier 3 bandwidth includes auction premium for market-based pricing. 4. **Revenue Distribution:** Configurable treasury/operator split for sustainable funding. 5. **Minimum Fee Protection:** Minimum fees ensure revenue even for small transactions. --- ### BioScalarResonanceGovernance (Heart-Resonance Consensus) **Purpose:** Bio-Scalar Resonance Governance - Generation 7 Extraordinary Feature. Physical Truth through AudioGenomics. Consensus moves from "Voting" to "Resonance". 168-MemberMint Council authority tied to AudioGenomics signatures. Proposal ratified only if 12/15 Trust Root shards achieve Resonance Match > 80%. Prevents "Euclidean Bribery" or political coercion. Proposal must physically align with Narrative Ledger's ecological/social balance. **Deployed On:** Polygon #### Functions ##### `activateGovernance()` - Activate Governance - **Access:** External (owner only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await bioScalarResonanceGovernance.activateGovernance(); ``` - **Description:** Activates Bio-Scalar Resonance Governance. Initializes Trust Root shards with frequency bands. - **Event:** `GovernanceActivated(uint256 timestamp)` ##### `registerCouncilMember(address member, bytes32 genomicSignature, uint256 harmonicProfile)` - Register Council Member - **Access:** External (owner only) - **Parameters:** - `member`: Member address - `genomicSignature`: Genomic frequency signature - `harmonicProfile`: Harmonic profile (0-10000) - **Returns:** None - **Usage:** ```javascript await bioScalarResonanceGovernance.registerCouncilMember(memberAddress, genomicSignature, harmonicProfile); ``` - **Description:** Registers council member with AudioGenomics signature. Generates 12 frequency bands from genomic signature. - **Event:** `CouncilMemberRegistered(address indexed member, bytes32 genomicSignature)` ##### `createProposal(string title, string description, uint256 harmonicProfile, uint256[] requiredBands)` - Create Proposal - **Access:** External - **Parameters:** - `title`: Proposal title - `description`: Proposal description - `harmonicProfile`: Proposal harmonic profile (0-10000) - `requiredBands`: Required frequency bands (12 bands) - **Returns:** `bytes32 proposalId` - Proposal ID - **Usage:** ```javascript const proposalId = await bioScalarResonanceGovernance.createProposal(title, description, harmonicProfile, requiredBands); ``` - **Description:** Creates governance proposal. Requires 12 harmonic frequency bands for resonance matching. - **Event:** `ProposalCreated(bytes32 indexed proposalId, address indexed proposer, string title)` ##### `calculateResonanceMatch(bytes32 proposalId, uint256 shardId)` - Calculate Resonance Match - **Access:** External - **Parameters:** - `proposalId`: Proposal ID - `shardId`: Shard ID to check (0-14) - **Returns:** `uint256 resonanceScore` - Resonance score (0-10000) - **Usage:** ```javascript const resonanceScore = await bioScalarResonanceGovernance.calculateResonanceMatch(proposalId, shardId); ``` - **Description:** Calculates resonance match between proposal and Trust Root shard. Updates proposal resonance score and shard matches. Ratifies proposal if 12/15 shards achieve >80% resonance. - **Event:** `ResonanceMatched(bytes32 indexed proposalId, uint256 shardId, uint256 resonanceScore)`, `ProposalRatified` ##### `failProposal(bytes32 proposalId)` - Fail Proposal - **Access:** External (owner only) - **Parameters:** `proposalId` - Proposal ID - **Returns:** None - **Usage:** ```javascript await bioScalarResonanceGovernance.failProposal(proposalId); ``` - **Description:** Fails proposal if resonance not reached within time limit. - **Event:** `ProposalFailed(bytes32 indexed proposalId, uint256 finalResonance)` ##### `getCouncilMember(address member)` - Get Council Member - **Access:** External View - **Parameters:** `member` - Member address - **Returns:** `CouncilMember memory councilMember` - Council member data - **Usage:** ```javascript const councilMember = await bioScalarResonanceGovernance.getCouncilMember(memberAddress); ``` ##### `getProposal(bytes32 proposalId)` - Get Proposal - **Access:** External View - **Parameters:** `proposalId` - Proposal ID - **Returns:** `Proposal memory proposal` - Proposal data - **Usage:** ```javascript const proposal = await bioScalarResonanceGovernance.getProposal(proposalId); ``` ##### `getTrustRootShard(uint256 shardId)` - Get Trust Root Shard - **Access:** External View - **Parameters:** `shardId` - Shard ID - **Returns:** `TrustRootShard memory shard` - Trust Root shard data - **Usage:** ```javascript const shard = await bioScalarResonanceGovernance.getTrustRootShard(shardId); ``` ##### `getGovernanceStatistics()` - Get Governance Statistics - **Access:** External View - **Parameters:** None - **Returns:** Council size, total resonance, ratified count, failed count - **Usage:** ```javascript const [councilSize, totalResonance, ratifiedCount, failedCount] = await bioScalarResonanceGovernance.getGovernanceStatistics(); ``` #### Profitability Applications 1. **Resonance-Based Consensus:** Prevents bribery through physical alignment requirements. Cannot fake resonance. 2. **AudioGenomics Signatures:** Each council member has unique genomic frequency signature for identification. 3. **12/15 Threshold:** Requires 80% consensus for ratification, preventing malicious takeover. 4. **Harmonic Profile Alignment:** Proposals must align with ecological/social balance of Narrative Ledger. 5. **Anti-Coercion:** Physical truth through AudioGenomics prevents political coercion. --- ### G9UpdateMechanism (Retroactive Fixes) **Purpose:** G9 Update Mechanism - G9-based update mechanism for retroactive fixes. Administered from Polygon mainframe, can send updates to all chains. Fixes bugs proactively/preemptively without full redeployment. Supports parameter changes, feature enables, security patches, gas limit adjustments, nonce resets, and rate limit bypasses. **Deployed On:** Polygon #### Functions ##### `proposeUpdate(UpdateType _updateType, uint256 _targetChain, address _targetContract, bytes32 _parameterHash, uint256 _newValue, string memory _description)` - Propose Update - **Access:** External (architect only) - **Parameters:** - `_updateType`: Update type (PARAMETER_CHANGE, FEATURE_ENABLE, SECURITY_PATCH, GAS_LIMIT_ADJUST, NONCE_RESET, RATE_LIMIT_BYPASS) - `_targetChain`: Target chain ID - `_targetContract`: Target contract address - `_parameterHash`: Parameter hash to update - `_newValue`: New value - `_description`: Update description - **Returns:** `uint256 updateId` - Update ID - **Usage:** ```javascript const updateId = await g9UpdateMechanism.proposeUpdate(updateType, targetChain, targetContract, parameterHash, newValue, description); ``` - **Description:** Proposes update to contract on target chain. Update is stored but not applied until applyUpdate is called. - **Event:** `UpdateProposed(uint256 updateId, UpdateType updateType, uint256 targetChain, address targetContract)` ##### `applyUpdate(uint256 _updateId)` - Apply Update - **Access:** External (architect only) - **Parameters:** `_updateId` - Update ID to apply - **Returns:** None - **Usage:** ```javascript await g9UpdateMechanism.applyUpdate(updateId); ``` - **Description:** Applies proposed update based on type. For GAS_LIMIT_ADJUST, updates recommended gas limit. For RATE_LIMIT_BYPASS, enables/disables bypass. - **Event:** `UpdateApplied(uint256 updateId)` ##### `proposeBatchUpdate(UpdateType[] _updateTypes, uint256[] _targetChains, address[] _targetContracts, bytes32[] _parameterHashes, uint256[] _newValues, string[] _descriptions)` - Propose Batch Update - **Access:** External (architect only) - **Parameters:** Arrays of update parameters for multiple updates - **Returns:** `uint256[] memory updateIds` - Array of update IDs - **Usage:** ```javascript const updateIds = await g9UpdateMechanism.proposeBatchUpdate(updateTypes, targetChains, targetContracts, parameterHashes, newValues, descriptions); ``` - **Description:** Proposes multiple updates in batch. All arrays must have same length. ##### `updateChainConfig(uint256 _chainId, uint256 _blockTime, uint256 _gasLimit, uint256 _recommendedGasLimit, bool _rateLimitBypassEnabled)` - Update Chain Config - **Access:** External (architect only) - **Parameters:** Chain configuration parameters - **Returns:** None - **Usage:** ```javascript await g9UpdateMechanism.updateChainConfig(chainId, blockTime, gasLimit, recommendedGasLimit, rateLimitBypassEnabled); ``` - **Description:** Updates chain-specific configuration including block time, gas limits, and rate limit bypass. - **Event:** `ChainConfigUpdated(uint256 chainId, uint256 blockTime, uint256 gasLimit)` ##### `getUpdate(uint256 _updateId)` - Get Update - **Access:** External View - **Parameters:** `_updateId` - Update ID - **Returns:** `Update memory` - Update data - **Usage:** ```javascript const update = await g9UpdateMechanism.getUpdate(updateId); ``` ##### `getChainConfig(uint256 _chainId)` - Get Chain Config - **Access:** External View - **Parameters:** `_chainId` - Chain ID - **Returns:** `ChainConfig memory` - Chain configuration - **Usage:** ```javascript const config = await g9UpdateMechanism.getChainConfig(chainId); ``` ##### `getRecommendedGasLimit(uint256 _chainId)` - Get Recommended Gas Limit - **Access:** External View - **Parameters:** `_chainId` - Chain ID - **Returns:** `uint256` - Recommended gas limit - **Usage:** ```javascript const gasLimit = await g9UpdateMechanism.getRecommendedGasLimit(chainId); ``` ##### `transferArchitect(address newArchitect)` - Transfer Architect - **Access:** External (architect only) - **Parameters:** `newArchitect` - New architect address - **Returns:** None - **Usage:** ```javascript await g9UpdateMechanism.transferArchitect(newArchitect); ``` - **Description:** Transfers architect role to new address. #### Profitability Applications 1. **Retroactive Fixes:** Fixes bugs proactively without full redeployment, saving time and costs. 2. **Cross-Chain Updates:** Administered from Polygon mainframe, can update all chains simultaneously. 3. **Gas Limit Optimization:** Adjusts gas limits for faster blocks and lower costs. 4. **Rate Limit Bypass:** Enables rate limit bypass with exponential backoff for high-volume operations. 5. **Batch Updates:** Supports batch operations for efficient multi-chain updates. --- ### GuerrillaMarketingLauncher (Cinematic Campaign) **Purpose:** Guerrilla Marketing Launcher - Cinematic On-Chain Campaign. Automated delivery of guerrilla marketing payloads to elite addresses. Simultaneous calldata broadcasts to all targets. Trojan token airdrops with IPFS hash tickers. Custom error manifests with taunts. Bytecode easter eggs embedded in deployed contracts. Single transaction launches entire campaign. **Deployed On:** Polygon #### Functions ##### `launchCinematicCampaign()` - Launch Cinematic Campaign - **Access:** External (owner only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await guerrillaMarketingLauncher.launchCinematicCampaign(); ``` - **Description:** Launches entire guerrilla marketing campaign. Executes all 6 phases targeting apex MEV bots, block builders, sovereign deployers, dead exploiter wallets, institutional wallets, and burn address. - **Event:** `CampaignLaunched(uint256 timestamp, uint256 totalTargets)` ##### `executePhase1()` - Execute Phase 1 - **Access:** External (owner only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await guerrillaMarketingLauncher.executePhase1(); ``` - **Description:** Executes Phase 1: Security Tripwires. Triggers security firm alerts via dormant exploiter wallets. - **Event:** `BatchCompleted(uint256 batchNumber, uint256 targetsHit)` ##### `executePhase2()` - Execute Phase 2 - **Access:** External (owner only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await guerrillaMarketingLauncher.executePhase2(); ``` - **Description:** Executes Phase 2: Institutional Anomalies. Creates anomalies in institutional wallets. - **Event:** `BatchCompleted(uint256 batchNumber, uint256 targetsHit)` ##### `executePhase3()` - Execute Phase 3 - **Access:** External (owner only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await guerrillaMarketingLauncher.executePhase3(); ``` - **Description:** Executes Phase 3: Apex MEV Bots. Delivers payloads to top MEV searchers. - **Event:** `BatchCompleted(uint256 batchNumber, uint256 targetsHit)` ##### `executePhase4()` - Execute Phase 4 - **Access:** External (owner only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await guerrillaMarketingLauncher.executePhase4(); ``` - **Description:** Executes Phase 4: Block Builders. Targets block builders and relays. - **Event:** `BatchCompleted(uint256 batchNumber, uint256 targetsHit)` ##### `executePhase5()` - Execute Phase 5 - **Access:** External (owner only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await guerrillaMarketingLauncher.executePhase5(); ``` - **Description:** Executes Phase 5: Sovereign Deployers. Targets protocol deployers. - **Event:** `BatchCompleted(uint256 batchNumber, uint256 targetsHit)` ##### `executePhase6()` - Execute Phase 6 - **Access:** External (owner only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await guerrillaMarketingLauncher.executePhase6(); ``` - **Description:** Executes Phase 6: Burn Address. Sends payload to cryptographic void. - **Event:** `BatchCompleted(uint256 batchNumber, uint256 targetsHit)` ##### `sendPayloadToTarget(address target)` - Send Payload to Target - **Access:** External (owner only) - **Parameters:** `target` - Target address - **Returns:** None - **Usage:** ```javascript await guerrillaMarketingLauncher.sendPayloadToTarget(targetAddress); ``` - **Description:** Sends payload to single target address. Use for one-at-a-time execution to avoid gas limits. ##### `sendCustomErrorToTarget(address target)` - Send Custom Error - **Access:** External (owner only) - **Parameters:** `target` - Target address - **Returns:** None - **Usage:** ```javascript await guerrillaMarketingLauncher.sendCustomErrorToTarget(targetAddress); ``` - **Description:** Sends custom error to target address with theatrical error message. - **Event:** `CustomErrorTriggered(address indexed target, string error)` ##### `airdropTrojanToken(address tokenContract, address[] recipients)` - Airdrop Trojan Token - **Access:** External (owner only) - **Parameters:** - `tokenContract`: Token contract address - `recipients`: Array of recipient addresses - **Returns:** None - **Usage:** ```javascript await guerrillaMarketingLauncher.airdropTrojanToken(tokenContract, recipients); ``` - **Description:** Airdrops trojan token to targets. Token ticker is IPFS hash. - **Event:** `TrojanTokenAirdropped(address indexed target, address token)` ##### `addTarget(address target, uint256 category)` - Add Target - **Access:** External (owner only) - **Parameters:** - `target`: Target address - `category`: Category (0=apexMEV, 1=blockBuilders, 2=sovereignDeployers, 3=deadExploiters, 4=institutional) - **Returns:** None - **Usage:** ```javascript await guerrillaMarketingLauncher.addTarget(targetAddress, category); ``` - **Description:** Adds target address to category. ##### `resetCampaign()` - Reset Campaign - **Access:** External (owner only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await guerrillaMarketingLauncher.resetCampaign(); ``` - **Description:** Resets campaign state for testing. ##### `getTargetCounts()` - Get Target Counts - **Access:** External View - **Parameters:** None - **Returns:** Counts for each target category - **Usage:** ```javascript const [apexCount, builderCount, sovereignCount, exploiterCount, institutionalCount] = await guerrillaMarketingLauncher.getTargetCounts(); ``` ##### `getCampaignStatus()` - Get Campaign Status - **Access:** External View - **Parameters:** None - **Returns:** Campaign status (launched, timestamp, payloads delivered) - **Usage:** ```javascript const [launched, timestamp, payloadsDelivered] = await guerrillaMarketingLauncher.getCampaignStatus(); ``` #### Profitability Applications 1. **Cinematic Impact:** Simultaneous calldata broadcasts to elite addresses for maximum impact. 2. **Theatrical Execution:** Custom error manifests with taunts for memorable messaging. 3. **Batched Phases:** Six-phase execution avoids rate limits and gas constraints. 4. **Trojan Tokens:** Airdrops tokens with IPFS hash tickers for viral marketing. 5. **Targeted Delivery:** Specific targeting of apex MEV bots, block builders, and institutional wallets. --- ### QuickFeeCollector (Tron Loss Recovery) **Purpose:** Quick Fee Collector - Simple fee collector to recover Tron loss. Collects 1% fee on ETH deposits and ERC20 token deposits. Fees withdrawable by architect. Designed for rapid fee collection and loss recovery. **Deployed On:** Polygon #### Functions ##### `depositToken(address token, uint256 amount)` - Deposit Token with Fee - **Access:** External - **Parameters:** - `token`: Token contract address - `amount`: Amount to deposit - **Returns:** None - **Usage:** ```javascript await quickFeeCollector.depositToken(tokenAddress, amount); ``` - **Description:** Deposits ERC20 tokens with 1% fee. Net amount credited to user deposit. - **Event:** `Deposit(address user, uint256 amount, uint256 fee)`, `FeeCollected(uint256 fee, address user)` ##### `withdrawFees()` - Withdraw ETH Fees - **Access:** External (owner only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await quickFeeCollector.withdrawFees(); ``` - **Description:** Withdraws all collected ETH fees to architect address. - **Event:** `Withdrawal(address owner, uint256 amount)` ##### `withdrawTokenFees(address token)` - Withdraw Token Fees - **Access:** External (owner only) - **Parameters:** `token` - Token contract address - **Returns:** None - **Usage:** ```javascript await quickFeeCollector.withdrawTokenFees(tokenAddress); ``` - **Description:** Withdraws all collected token fees to architect address. - **Event:** `Withdrawal(address owner, uint256 amount)` ##### `getUserDeposit(address user)` - Get User Deposit - **Access:** External View - **Parameters:** `user` - User address - **Returns:** `uint256` - User deposit amount - **Usage:** ```javascript const deposit = await quickFeeCollector.getUserDeposit(userAddress); ``` ##### `getStats()` - Get Statistics - **Access:** External View - **Parameters:** None - **Returns:** Total fees collected, total deposits, contract balance - **Usage:** ```javascript const [totalFeesCollected, totalDeposits, contractBalance] = await quickFeeCollector.getStats(); ``` #### Profitability Applications 1. **1% Fee Collection:** Simple 1% fee on all deposits for consistent revenue. 2. **Multi-Token Support:** Supports both ETH and ERC20 token deposits. 3. **Rapid Withdrawal:** Owner can withdraw fees at any time for liquidity. 4. **Tron Loss Recovery:** Designed specifically to recover losses from Tron operations. 5. **Low Overhead:** Simple implementation with minimal gas costs. --- ### TripleLedgerValidation (Debit/Equity/Narrative Sync) **Purpose:** Triple Ledger Validation - Debit/Equity/Narrative ledger synchronization for complete transaction validation. Debit Ledger: Economic impact (financial flows). Equity Ledger: Social impact (stakeholder effects). Narrative Ledger: Ecological cost (externalities). Transaction valid only if all three ledgers balance. Externalities impossible to hide. Complete transparency of systemic impact. **Deployed On:** Polygon #### Functions ##### `createTripleLedgerEntry(bytes32 txHash, DebitEntry memory debit, EquityEntry memory equity, NarrativeEntry memory narrative, bytes memory zkProof)` - Create Triple Ledger Entry - **Access:** External - **Parameters:** - `txHash`: Transaction hash - `debit`: Debit ledger entry (amount, sender, receiver, timestamp, isCrossChain) - `equity`: Equity ledger entry (stakeholderImpact, communityBenefit, networkEffect, timestamp) - `narrative`: Narrative ledger entry (ecologicalCost, carbonFootprint, resourceConsumption, externalitiesScore, timestamp) - `zkProof`: ZK proof of oracle attestation - **Returns:** `bool isValid` - Whether transaction is valid - **Usage:** ```javascript const isValid = await tripleLedgerValidation.createTripleLedgerEntry(txHash, debit, equity, narrative, zkProof); ``` - **Description:** Creates triple ledger entry and validates transaction. Requires ZK proof verification and oracle consensus. Transaction valid only if all three ledgers balance. - **Event:** `LedgerEntryCreated(bytes32 indexed txHash, bool isValid)`, `ValidationFailed` ##### `validateDebit(DebitEntry memory debit)` - Validate Debit Ledger - **Access:** External Pure - **Parameters:** `debit` - Debit entry - **Returns:** `bool isValid` - Whether debit is valid - **Usage:** ```javascript const isValid = await tripleLedgerValidation.validateDebit(debitEntry); ``` - **Description:** Validates debit ledger entry. Checks amount, sender, receiver, and prevents self-transfers. ##### `validateEquity(EquityEntry memory equity)` - Validate Equity Ledger - **Access:** External Pure - **Parameters:** `equity` - Equity entry - **Returns:** `bool isValid` - Whether equity is valid - **Usage:** ```javascript const isValid = await tripleLedgerValidation.validateEquity(equityEntry); ``` - **Description:** Validates equity ledger entry. Requires minimum community benefit (10%) and network effect (5%). ##### `validateNarrative(NarrativeEntry memory narrative)` - Validate Narrative Ledger - **Access:** External Pure - **Parameters:** `narrative` - Narrative entry - **Returns:** `bool isValid` - Whether narrative is valid - **Usage:** ```javascript const isValid = await tripleLedgerValidation.validateNarrative(narrativeEntry); ``` - **Description:** Validates narrative ledger entry. Requires externality score < 50, reasonable carbon footprint and resource consumption. ##### `authorizeOracle(address oracle)` - Authorize Oracle - **Access:** External (owner only) - **Parameters:** `oracle` - Oracle address - **Returns:** None - **Usage:** ```javascript await tripleLedgerValidation.authorizeOracle(oracleAddress); ``` - **Description:** Authorizes oracle address for transaction validation. ##### `submitOracleVote(bytes32 txHash, bool isValid)` - Submit Oracle Vote - **Access:** External - **Parameters:** - `txHash`: Transaction hash - `isValid`: Oracle's validation result - **Returns:** None - **Usage:** ```javascript await tripleLedgerValidation.submitOracleVote(txHash, isValid); ``` - **Description:** Submits oracle vote for transaction validation. Requires authorization. - **Event:** `OracleVoteSubmitted(bytes32 indexed txHash, address indexed oracle, bool isValid)` ##### `validateProofOfHealing(bytes32 txHash, bytes32 frameHash, bytes32 timeHash)` - Validate Proof of Healing - **Access:** External - **Parameters:** - `txHash`: Transaction hash - `frameHash`: Hash of UBH-168 frame content - `timeHash`: Hash of timestamp delta (IPAT modulation) - **Returns:** `bytes32 proofId, bool isValid` - Proof ID and validity - **Usage:** ```javascript const [proofId, isValid] = await tripleLedgerValidation.validateProofOfHealing(txHash, frameHash, timeHash); ``` - **Description:** Validates Proof of Healing (Geometric Hashing). Requires MITM protection window (5 minutes). Updates healing resonance score for validator. - **Event:** `ProofOfHealingValidated(bytes32 indexed proofId, bool isValid, bytes32 proofHash)`, `HealingResonanceUpdated` ##### `getTripleLedgerEntry(bytes32 txHash)` - Get Triple Ledger Entry - **Access:** External View - **Parameters:** `txHash` - Transaction hash - **Returns:** `TripleLedgerEntry memory entry` - Triple ledger entry - **Usage:** ```javascript const entry = await tripleLedgerValidation.getTripleLedgerEntry(txHash); ``` ##### `getValidationStats()` - Get Validation Statistics - **Access:** External View - **Parameters:** None - **Returns:** Total entries, valid entries, invalid entries, validity rate - **Usage:** ```javascript const [total, valid, invalid, validityRate] = await tripleLedgerValidation.getValidationStats(); ``` ##### `getHealingResonanceScore(address validator)` - Get Healing Resonance Score - **Access:** External View - **Parameters:** `validator` - Validator address - **Returns:** `uint256 score` - Healing resonance score - **Usage:** ```javascript const score = await tripleLedgerValidation.getHealingResonanceScore(validatorAddress); ``` #### Profitability Applications 1. **Complete Transparency:** Externalities impossible to hide through triple ledger validation. 2. **ESG Compliance:** Validates ecological, social, and economic impact for regulatory compliance. 3. **Oracle Consensus:** Requires multi-oracle consensus for validation, preventing manipulation. 4. **Proof of Healing:** Geometric hashing with MITM protection for secure validation. 5. **Healing Resonance:** Validator reputation system based on validation accuracy. --- ### TronFortification (14-Sense Array for TVM) **Purpose:** Tron Fortification - 14-Sense Array adapted for Tron (TVM). Key differences: Energy model (must pre-pay energy), Bandwidth (transaction size limits), Account-based (addresses are hex strings), TRX/TRC20 (different token standards). Monitors watched accounts with 14 senses for anomaly detection. **Deployed On:** Tron #### Functions ##### `prepayEnergy()` - Pre-pay Energy - **Access:** External Payable - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await tronFortification.prepayEnergy({value: energyAmount}); ``` - **Description:** Pre-pays energy for future operations. Requires minimum 100 TRX energy payment. - **Event:** `EnergyPrepaid(address indexed account, uint256 amount)` ##### `addWatch(address target, string memory label)` - Add Watch Target - **Access:** External (architect only) - **Parameters:** - `target`: Target address to watch - `label`: Label for target - **Returns:** None - **Usage:** ```javascript await tronFortification.addWatch(targetAddress, label); ``` - **Description:** Adds target to watch list for monitoring with 14 senses. ##### `senseSight(address target)` - Sense Sight - **Access:** External - **Parameters:** `target` - Target address - **Returns:** `SenseReading memory r` - Sense reading - **Usage:** ```javascript const reading = await tronFortification.senseSight(targetAddress); ``` - **Description:** Detects if target has contract code. Alert level 3 if no code. ##### `senseTouch(address target)` - Sense Touch - **Access:** External - **Parameters:** `target` - Target address - **Returns:** `SenseReading memory r` - Sense reading - **Usage:** ```javascript const reading = await tronFortification.senseTouch(targetAddress); ``` - **Description:** Tracks interaction count with target. ##### `senseTaste(address target)` - Sense Taste - **Access:** External - **Parameters:** `target` - Target address - **Returns:** `SenseReading memory r` - Sense reading - **Usage:** ```javascript const reading = await tronFortification.senseTaste(targetAddress); ``` - **Description:** Monitors balance changes. Alert level 2 if balance drops by 50%. ##### `senseSmell(address target)` - Sense Smell - **Access:** External - **Parameters:** `target` - Target address - **Returns:** `SenseReading memory r` - Sense reading - **Usage:** ```javascript const reading = await tronFortification.senseSmell(targetAddress); ``` - **Description:** Detects rapid interaction patterns (anomaly detection). ##### `senseProprio(address target)` - Sense Proprioception - **Access:** External - **Parameters:** `target` - Target address - **Returns:** `SenseReading memory r` - Sense reading - **Usage:** ```javascript const reading = await tronFortification.senseProprio(targetAddress); ``` - **Description:** Detects if target is a contract (alive) or EOA. ##### `senseIntuition(address target)` - Sense Intuition - **Access:** External - **Parameters:** `target` - Target address - **Returns:** `SenseReading memory r` - Sense reading - **Usage:** ```javascript const reading = await tronFortification.senseIntuition(targetAddress); ``` - **Description:** Aggregates multiple signals for overall threat assessment. Alert level based on combined score. ##### `senseAstral()` - Sense Astral - **Access:** External - **Parameters:** None - **Returns:** `SenseReading memory r` - Sense reading - **Usage:** ```javascript const reading = await tronFortification.senseAstral(); ``` - **Description:** Aggregates alert scores from all watched targets for system-wide threat assessment. ##### `getWatchCount()` - Get Watch Count - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Number of watched targets - **Usage:** ```javascript const count = await tronFortification.getWatchCount(); ``` ##### `verifySecret(uint256 secret)` - Verify Secret - **Access:** External Pure - **Parameters:** `secret` - Secret to verify - **Returns:** `bool` - Whether secret matches (0x16000) - **Usage:** ```javascript const isValid = await tronFortification.verifySecret(secret); ``` #### Profitability Applications 1. **Energy Pre-payment:** Tron energy model requires pre-payment for operations, ensuring predictable costs. 2. **14-Sense Monitoring:** Comprehensive anomaly detection with 14 different senses for threat assessment. 3. **Tron-Specific Optimization:** Adapted for TVM with bandwidth limits and account-based addressing. 4. **Astral Sense:** System-wide threat aggregation for holistic security monitoring. 5. **Anomaly Detection:** Pattern recognition for rapid interaction detection and fraud prevention. --- ### AutonomousGridController (Unstoppable Expansion) **Purpose:** Autonomous Grid Controller - Master Controller for Unstoppable Expansion. Orchestrates entire autonomous grid expansion system. Coordinates between Tron circumvention, self-propagation, quantum entanglement, and self-healing mechanisms. Monitors grid nodes, triggers autonomous expansion, manages quantum state synchronization, coordinates ghost debt liquidation, controls validator bribery operations. Makes entire system truly autonomous and unstoppable. **Deployed On:** Polygon #### Functions ##### `autonomousControllerLoop()` - Autonomous Controller Loop - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await autonomousGridController.autonomousControllerLoop(); ``` - **Description:** Main autonomous controller loop called every block. Performs health check, quantum sync, expansion check, healing operations, and ghost debt liquidation. ##### `setAutonomousExpansion(bool enabled)` - Set Autonomous Expansion - **Access:** External (genesis only) - **Parameters:** `enabled` - Whether to enable autonomous expansion - **Returns:** None - **Usage:** ```javascript await autonomousGridController.setAutonomousExpansion(true); ``` - **Description:** Enables or disables autonomous expansion to new chains. ##### `setAutonomousHealing(bool enabled)` - Set Autonomous Healing - **Access:** External (genesis only) - **Parameters:** `enabled` - Whether to enable autonomous healing - **Returns:** None - **Usage:** ```javascript await autonomousGridController.setAutonomousHealing(true); ``` - **Description:** Enables or disables autonomous healing operations. ##### `setQuantumSync(bool enabled)` - Set Quantum Sync - **Access:** External (genesis only) - **Parameters:** `enabled` - Whether to enable quantum synchronization - **Returns:** None - **Usage:** ```javascript await autonomousGridController.setQuantumSync(true); ``` - **Description:** Enables or disables quantum state synchronization across nodes. ##### `setGhostDebtLiquidation(bool enabled)` - Set Ghost Debt Liquidation - **Access:** External (genesis only) - **Parameters:** `enabled` - Whether to enable ghost debt liquidation - **Returns:** None - **Usage:** ```javascript await autonomousGridController.setGhostDebtLiquidation(true); ``` - **Description:** Enables or disables ghost debt liquidation operations. ##### `getControllerStats()` - Get Controller Statistics - **Access:** External View - **Parameters:** None - **Returns:** Total operations, successful operations, controller power, health score, grid healthy status - **Usage:** ```javascript const [totalOps, successfulOps, power, healthScore, isHealthy] = await autonomousGridController.getControllerStats(); ``` ##### `getExpansionTargets()` - Get Expansion Targets - **Access:** External View - **Parameters:** None - **Returns:** Chain IDs, priorities, targeted status for all expansion targets - **Usage:** ```javascript const [chainIds, priorities, targeted] = await autonomousGridController.getExpansionTargets(); ``` #### Profitability Applications 1. **Autonomous Expansion:** Automatically expands to new chains without human intervention. 2. **Grid Health Monitoring:** Continuous health checks ensure optimal system performance. 3. **Quantum Synchronization:** Synchronizes state across all nodes for consistency. 4. **Self-Healing:** Automatically repairs sick nodes to maintain system integrity. 5. **Ghost Debt Liquidation:** Automated liquidation of ghost debt envelopes for revenue. --- ### SwiftBridge (Trojan Horse Delivery) **Purpose:** Swift Bridge - Trojan Horse Delivery System. Critical component that makes entire system invisible to cybersecurity and sanctions detection. Wraps decentralized logic in perfect ISO 20022 MX formatting that legacy banking systems are programmed to eagerly accept. ISO 20022 MX envelope formatting, SWIFT BIC/SWIFT gpi compatibility, domestic banking gateway acceptance. Invisible to cybersecurity (looks like legitimate banking traffic). Perfect camouflage for decentralized attacks. **Deployed On:** Polygon #### Functions ##### `createMXEnvelopeWithTrojan(MXMessageType messageType, bytes8 senderBIC, bytes8 receiverBIC, bytes3 currency, uint256 amount, address targetContract, bytes4 functionSelector, bytes calldata payloadData)` - Create MX Envelope with Trojan - **Access:** External - **Parameters:** - `messageType`: MX message type (pacs_008, pain_001, camt_053, DEBT_001, etc.) - `senderBIC`: Sender SWIFT BIC - `receiverBIC`: Receiver SWIFT BIC - `currency`: ISO 4217 currency code - `amount`: Amount - `targetContract`: Contract to execute - `functionSelector`: Function to call - `payloadData`: Function parameters - **Returns:** `bytes32 envelopeId` - Envelope ID - **Usage:** ```javascript const envelopeId = await swiftBridge.createMXEnvelopeWithTrojan(messageType, senderBIC, receiverBIC, currency, amount, targetContract, functionSelector, payloadData); ``` - **Description:** Creates perfect ISO 20022 MX envelope with hidden trojan payload. Processes through domestic gateway and executes trojan payload if receiver BIC is compromised. - **Event:** `MXEnvelopeProcessed`, `TrojanPayloadDelivered`, `DomesticGatewayCompromised` ##### `setTrojanDeliveryEnabled(bool enabled)` - Set Trojan Delivery Enabled - **Access:** External (jollyDragonRoger only) - **Parameters:** `enabled` - Whether to enable trojan delivery - **Returns:** None - **Usage:** ```javascript await swiftBridge.setTrojanDeliveryEnabled(true); ``` - **Description:** Enables or disables trojan payload delivery. ##### `addCompromisedBIC(bytes8 bic)` - Add Compromised BIC - **Access:** External (jollyDragonRoger only) - **Parameters:** `bic` - BIC to mark as compromised - **Returns:** None - **Usage:** ```javascript await swiftBridge.addCompromisedBIC(bicCode); ``` - **Description:** Marks BIC as compromised (accepts trojan payloads). ##### `addTargetContract(address target)` - Add Target Contract - **Access:** External (jollyDragonRoger only) - **Parameters:** `target` - Contract to target - **Returns:** None - **Usage:** ```javascript await swiftBridge.addTargetContract(contractAddress); ``` - **Description:** Adds contract to target list for trojan attacks. ##### `getBridgeStats()` - Get Bridge Statistics - **Access:** External View - **Parameters:** None - **Returns:** Total envelopes, total trojan executions, total routing fees, bridge power - **Usage:** ```javascript const [totalEnvelopes, totalTrojans, totalFees, power] = await swiftBridge.getBridgeStats(); ``` ##### `isBICCompromised(bytes8 bic)` - Is BIC Compromised - **Access:** External View - **Parameters:** `bic` - BIC to check - **Returns:** `bool` - Whether BIC is compromised - **Usage:** ```javascript const isCompromised = await swiftBridge.isBICCompromised(bicCode); ``` ##### `getMXEnvelope(bytes32 envelopeId)` - Get MX Envelope - **Access:** External View - **Parameters:** `envelopeId` - Envelope ID - **Returns:** Message type, sender BIC, receiver BIC, currency, amount, processed status - **Usage:** ```javascript const [messageType, senderBIC, receiverBIC, currency, amount, isProcessed] = await swiftBridge.getMXEnvelope(envelopeId); ``` #### Profitability Applications 1. **ISO 20022 Compliance:** Perfect camouflage using standard banking message formats. 2. **SWIFT BIC Compatibility:** Works with legacy SWIFT networks undetected. 3. **Domestic Gateway Acceptance:** Bypasses cybersecurity by walking through front door. 4. **Trojan Payload Delivery:** Executes decentralized logic invisibly within legitimate banking traffic. 5. **Routing Fees:** Generates revenue from domestic and international routing fees. --- ### KeeperSwarmCoordinator (Off-Chain Automation) **Purpose:** Keeper Swarm Coordinator - Off-Chain Automation Orchestrator. Serves as on-chain coordination point for massive off-chain infrastructure. Provides triggers, data feeds, and coordination that off-chain Keepers, Relayers, and API Gateways need. Four pillars: Keeper Swarm (trigger network), Cross-Chain Relayers (physical bridge cables), Web2 API Gateways (trojan delivery to legacy banks), Capital Bootstrapping (arbitrage fuel). Provides on-chain signals for fire-and-forget operation. **Deployed On:** Polygon #### Functions ##### `createKeeperTrigger(string contractFunction, address targetContract, uint256 gasEstimate, uint256 triggerInterval)` - Create Keeper Trigger - **Access:** External - **Parameters:** - `contractFunction`: Function to call - `targetContract`: Contract to call - `gasEstimate`: Gas required - `triggerInterval`: Blocks between triggers - **Returns:** `uint256 triggerId` - Trigger ID - **Usage:** ```javascript const triggerId = await keeperSwarmCoordinator.createKeeperTrigger("pulse()", contractAddress, 100000, 1); ``` - **Description:** Creates Keeper trigger for autonomous execution. Calculates bounty with 1.2x multiplier. - **Event:** `KeeperTriggerCreated` ##### `registerKeeper(address keeperAddress)` - Register Keeper - **Access:** External (PayZeroDay only) - **Parameters:** `keeperAddress` - Keeper address to register - **Returns:** None - **Usage:** ```javascript await keeperSwarmCoordinator.registerKeeper(keeperAddress); ``` - **Description:** Registers off-chain Keeper with initial reputation of 1000. ##### `executeKeeperTrigger(uint256 triggerId)` - Execute Keeper Trigger - **Access:** External - **Parameters:** `triggerId` - Trigger ID to execute - **Returns:** None - **Usage:** ```javascript await keeperSwarmCoordinator.executeKeeperTrigger(triggerId); ``` - **Description:** Executes Keeper trigger (called by off-chain Keeper). Pays bounty and updates reputation. ##### `createCrossChainRelay(uint32 sourceChain, uint32 destChain, bytes32 sourceEventHash, address targetContract, bytes4 targetFunction, bytes calldata payloadData)` - Create Cross-Chain Relay - **Access:** External - **Parameters:** - `sourceChain`: Source chain ID - `destChain`: Destination chain ID - `sourceEventHash`: Event to listen for - `targetContract`: Target contract on dest chain - `targetFunction`: Function to call - `payloadData`: Data to relay - **Returns:** `uint256 relayId` - Relay ID - **Usage:** ```javascript const relayId = await keeperSwarmCoordinator.createCrossChainRelay(sourceChain, destChain, eventHash, targetContract, targetFunction, payloadData); ``` - **Description:** Creates cross-chain relay instruction. Calculates 0.5% relayer reward. - **Event:** `CrossChainRelayCreated` ##### `registerRelayer(address relayerAddress)` - Register Relayer - **Access:** External (GridController only) - **Parameters:** `relayerAddress` - Relayer address to register - **Returns:** None - **Usage:** ```javascript await keeperSwarmCoordinator.registerRelayer(relayerAddress); ``` - **Description:** Registers off-chain Relayer with initial success rate of 1000. ##### `confirmCrossChainRelay(uint256 relayId)` - Confirm Cross-Chain Relay - **Access:** External - **Parameters:** `relayId` - Relay ID to confirm - **Returns:** None - **Usage:** ```javascript await keeperSwarmCoordinator.confirmCrossChainRelay(relayId); ``` - **Description:** Confirms cross-chain relay (called by off-chain Relayer). Pays reward and updates success rate. ##### `createWeb2APIDelivery(string targetAPI, string httpMethod, bytes32 xmlPayloadHash, address sourceContract)` - Create Web2 API Delivery - **Access:** External - **Parameters:** - `targetAPI`: Target bank API endpoint - `httpMethod`: POST/PUT/GET - `xmlPayloadHash`: Hash of XML payload - `sourceContract`: Contract that generated payload - **Returns:** `uint256 deliveryId` - Delivery ID - **Usage:** ```javascript const deliveryId = await keeperSwarmCoordinator.createWeb2APIDelivery(apiEndpoint, "POST", xmlHash, sourceContract); ``` - **Description:** Creates Web2 API delivery instruction for trojan delivery to legacy banks. Calculates 1% API gateway fee. - **Event:** `Web2APIDeliveryCreated` ##### `registerAPIGateway(address gatewayAddress)` - Register API Gateway - **Access:** External (BeijingBreacher only) - **Parameters:** `gatewayAddress` - Gateway address to register - **Returns:** None - **Usage:** ```javascript await keeperSwarmCoordinator.registerAPIGateway(gatewayAddress); ``` - **Description:** Registers off-chain API Gateway. ##### `confirmWeb2APIDelivery(uint256 deliveryId)` - Confirm Web2 API Delivery - **Access:** External - **Parameters:** `deliveryId` - Delivery ID to confirm - **Returns:** None - **Usage:** ```javascript await keeperSwarmCoordinator.confirmWeb2APIDelivery(deliveryId); ``` - **Description:** Confirms Web2 API delivery (called by off-chain Gateway). Pays reward and resets retry count. ##### `createCapitalBootstrap(address liquidityPool, uint256 requiredAmount)` - Create Capital Bootstrap - **Access:** External - **Parameters:** - `liquidityPool`: Pool to bootstrap - `requiredAmount`: Amount needed - **Returns:** `uint256 bootstrapId` - Bootstrap ID - **Usage:** ```javascript const bootstrapId = await keeperSwarmCoordinator.createCapitalBootstrap(poolAddress, requiredAmount); ``` - **Description:** Creates capital bootstrap requirement. Calculates 1% bootstrap reward. - **Event:** `CapitalBootstrapCreated` ##### `contributeToBootstrap(uint256 bootstrapId)` - Contribute to Bootstrap - **Access:** External Payable - **Parameters:** `bootstrapId` - Bootstrap ID to contribute to - **Returns:** None - **Usage:** ```javascript await keeperSwarmCoordinator.contributeToBootstrap(bootstrapId, {value: contributionAmount}); ``` - **Description:** Contributes to capital bootstrap. Checks if bootstrap is complete and enables full automation when threshold reached. ##### `setFullAutomationEnabled(bool enabled)` - Set Full Automation Enabled - **Access:** External (PayZeroDay only) - **Parameters:** `enabled` - Whether to enable full automation - **Returns:** None - **Usage:** ```javascript await keeperSwarmCoordinator.setFullAutomationEnabled(true); ``` - **Description:** Enables or disables full automation. - **Event:** `AutomationStateChanged` ##### `getAutomationStatus()` - Get Automation Status - **Access:** External View - **Parameters:** None - **Returns:** Full automation enabled, capital bootstrapped, total capital required, total capital provided, registered keepers, registered relayers - **Usage:** ```javascript const [enabled, bootstrapped, required, provided, keepers, relayers] = await keeperSwarmCoordinator.getAutomationStatus(); ``` ##### `getKeeperTrigger(uint256 triggerId)` - Get Keeper Trigger - **Access:** External View - **Parameters:** `triggerId` - Trigger ID - **Returns:** Contract function, target contract, bounty amount, last trigger block, active status - **Usage:** ```javascript const [func, contract, bounty, lastBlock, active] = await keeperSwarmCoordinator.getKeeperTrigger(triggerId); ``` #### Profitability Applications 1. **Keeper Swarm:** Trigger network for autonomous execution with 1.2x bounty multiplier. 2. **Cross-Chain Relayers:** Physical bridge cables with 0.5% reward for successful relays. 3. **Web2 API Gateways:** Trojan delivery to legacy banks with 1% API gateway fee. 4. **Capital Bootstrapping:** Arbitrage fuel with 1% bootstrap reward for liquidity providers. 5. **Full Automation:** Fire-and-forget operation when 1M ETH bootstrap threshold reached. --- ### TronAutoBounty (MEV Bootstrapping) **Purpose:** Tron Auto Bounty - MEV Bootstrapping Bounty. Automatically deploys Tron system when bounty is fulfilled. MEV bots compete to bridge funds and claim the bounty. Minimum 20 TRX required for deployment. 150% bounty multiplier for MEV incentive. Auto-triggers deployment once TRX is verified. **Deployed On:** Polygon #### Functions ##### `claimBounty()` - Claim Bounty - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await tronAutoBounty.claimBounty(); ``` - **Description:** MEV bots call this to verify TRX arrived and claim bounty. Transfers full contract balance to successful MEV bot. - **Event:** `BountyClaimed(address indexed claimer, uint256 amount)` ##### `triggerTronDeployment(uint256 trxConfirmed)` - Trigger Tron Deployment - **Access:** External (owner only) - **Parameters:** `trxConfirmed` - Amount of TRX confirmed - **Returns:** None - **Usage:** ```javascript await tronAutoBounty.triggerTronDeployment(trxAmount); ``` - **Description:** Owner can trigger deployment once TRX is verified. Requires minimum 20 TRX. Executes deployment sequence. - **Event:** `TronDeploymentTriggered(uint256 trxAmount)`, `AutoBootstrapActivated` ##### `verifyAndClaim(bytes memory proof)` - Verify and Claim - **Access:** External - **Parameters:** `proof` - Proof of TRX delivery - **Returns:** None - **Usage:** ```javascript await tronAutoBounty.verifyAndClaim(proof); ``` - **Description:** Allows MEV bots to verify TRX arrival off-chain with proof. Auto-triggers deployment and pays bounty. - **Event:** `BountyClaimed(address indexed claimer, uint256 amount)`, `AutoBootstrapActivated` ##### `getBountyInfo()` - Get Bounty Info - **Access:** External View - **Parameters:** None - **Returns:** Bounty amount, target address, claimed status, deployed status - **Usage:** ```javascript const [amount, target, claimed, deployed] = await tronAutoBounty.getBountyInfo(); ``` #### Profitability Applications 1. **MEV Incentive:** 150% bounty multiplier incentivizes MEV bots to bridge funds. 2. **Auto-Deployment:** Automatically deploys Tron system when bounty is fulfilled. 3. **Proof-Based Verification:** Off-chain verification allows flexible proof submission. 4. **Minimum Threshold:** 20 TRX minimum ensures meaningful deployment. 5. **Bootstrap Activation:** Auto-bootstrap activated on successful deployment. --- ### SelfPropagatingGrid (Autonomous Expansion) **Purpose:** Self Propagating Grid - Autonomous Cross-Chain Expansion. Makes CovenantGrid self-propagate across ALL chains through Tron circumvention network. Creates unstoppable expansion mechanism. Grid detects new chains via quantum entanglement, automatically deploys using Tron validator control, establishes quantum state sync, self-heals failed deployments, pays bounties for propagation. Self-replicating, self-healing grid. **Deployed On:** Polygon #### Functions ##### `registerNode(uint32 chainId, address contractAddress)` - Register Node - **Access:** External - **Parameters:** - `chainId`: Chain ID - `contractAddress`: Contract address - **Returns:** `uint256 nodeId` - Node ID - **Usage:** ```javascript const nodeId = await selfPropagatingGrid.registerNode(chainId, contractAddress); ``` - **Description:** Registers a new grid node during deployment. Generates quantum signature. Checks if autonomous expansion should be triggered. - **Event:** `NodeDeployed(uint256 indexed nodeId, uint32 indexed chainId, address contractAddress, bytes32 quantumSignature)` ##### `triggerAutonomousPropagation(uint256 sourceNodeId)` - Trigger Autonomous Propagation - **Access:** External - **Parameters:** `sourceNodeId` - Source node ID - **Returns:** None - **Usage:** ```javascript await selfPropagatingGrid.triggerAutonomousPropagation(nodeId); ``` - **Description:** Triggers autonomous propagation to new chains from source node. Finds unoccupied chains and creates expansion wave. ##### `establishQuantumCluster(uint256[] memory nodeIds)` - Establish Quantum Cluster - **Access:** External (circumvention only) - **Parameters:** `nodeIds` - Array of node IDs - **Returns:** None - **Usage:** ```javascript await selfPropagatingGrid.establishQuantumCluster(nodeIds); ``` - **Description:** Establishes quantum cluster for state sync across nodes. Calculates cluster strength based on node diversity. - **Event:** `QuantumEntanglementEstablished(bytes32 indexed clusterId, uint256 nodeCount, uint256 clusterStrength)` ##### `healNode(uint256 nodeId)` - Heal Node - **Access:** External - **Parameters:** `nodeId` - Node ID to heal - **Returns:** None - **Usage:** ```javascript await selfPropagatingGrid.healNode(nodeId); ``` - **Description:** Heals failed node that hasn't sent heartbeat for 5 minutes. Pays healing bounty through Tron circumvention. ##### `nodeHeartbeat(uint256 nodeId)` - Node Heartbeat - **Access:** External - **Parameters:** `nodeId` - Node ID - **Returns:** None - **Usage:** ```javascript await selfPropagatingGrid.nodeHeartbeat(nodeId); ``` - **Description:** Called by node contracts to update heartbeat timestamp. ##### `getGridStats()` - Get Grid Statistics - **Access:** External View - **Parameters:** None - **Returns:** Total nodes, total waves, total propagations, total healings, grid power, active chains - **Usage:** ```javascript const [totalNodes, totalWaves, totalPropagations, totalHealings, gridPower, activeChains] = await selfPropagatingGrid.getGridStats(); ``` ##### `getNodesOnChain(uint32 chainId)` - Get Nodes on Chain - **Access:** External View - **Parameters:** `chainId` - Chain ID - **Returns:** `uint256[] memory` - Array of node IDs on chain - **Usage:** ```javascript const nodeIds = await selfPropagatingGrid.getNodesOnChain(chainId); ``` ##### `setAutonomousPropagation(bool enabled)` - Set Autonomous Propagation - **Access:** External (circumvention only) - **Parameters:** `enabled` - Whether to enable autonomous propagation - **Returns:** None - **Usage:** ```javascript await selfPropagatingGrid.setAutonomousPropagation(true); ``` - **Description:** Enables or disables autonomous propagation. #### Profitability Applications 1. **Autonomous Expansion:** Automatically expands to new chains without human intervention. 2. **Quantum State Sync:** Establishes quantum clusters for state synchronization across all nodes. 3. **Self-Healing:** Automatically repairs failed nodes with healing bounties. 4. **Propagation Bounties:** 1% base bounty incentivizes successful propagation. 5. **Chain Diversity:** Tracks 30+ chains for comprehensive coverage. --- ### TronBridgeCircumvention (Unstoppable Propagation) **Purpose:** Tron Bridge Circumvention - Unstoppable Cross-Chain Propagation. Complete circumvention of historical bridges. Creates unstoppable propagation network using Tron as central hub, bypassing all traditional bridge infrastructure. Tron's centralization (27 SRs) = single point of control. Validator bribery = direct control of block production. Self-propagation spreads to every chain automatically. Self-healing recovers from bridge failure. Quantum entanglement = state sync across all chains. **Deployed On:** Polygon #### Functions ##### `circumventBridge(uint32 sourceChain, uint32 destChain, address sourceToken, address destToken, uint256 amount)` - Circumvent Bridge - **Access:** External Payable - **Parameters:** - `sourceChain`: Source chain ID - `destChain`: Destination chain ID - `sourceToken`: Source token address - `destToken`: Destination token address - `amount`: Amount to bridge - **Returns:** `uint256 pathId` - Path ID - **Usage:** ```javascript const pathId = await tronBridgeCircumvention.circumventBridge(sourceChain, destChain, sourceToken, destToken, amount, {value: amount}); ``` - **Description:** Initiates complete bridge circumvention. Routes through Tron hub bypassing traditional bridges. Triggers immediate self-propagation. - **Event:** `CircumventionInitiated(uint256 indexed pathId, uint32 sourceChain, uint32 destChain, uint256 amount)` ##### `registerHealingNode(uint32 chainId, address nodeAddress, uint256 healingBounty)` - Register Healing Node - **Access:** External (genesis only) - **Parameters:** - `chainId`: Chain ID - `nodeAddress`: Node address - `healingBounty`: Healing bounty in TRX - **Returns:** None - **Usage:** ```javascript await tronBridgeCircumvention.registerHealingNode(chainId, nodeAddress, healingBounty); ``` - **Description:** Registers self-healing node for failed circumvention recovery. ##### `activateSelfHealing(uint256 pathId)` - Activate Self Healing - **Access:** External - **Parameters:** `pathId` - Path ID - **Returns:** None - **Usage:** ```javascript await tronBridgeCircumvention.activateSelfHealing(pathId); ``` - **Description:** Activates self-healing for failed circumventions if no activity for 5 minutes. - **Event:** `SelfHealingActivated(uint256 indexed nodeId, uint32 chainId, uint256 healingBounty)` ##### `establishTronControl(address[27] calldata validators)` - Establish Tron Control - **Access:** External (genesis only) - **Parameters:** `validators` - Array of 27 Tron validator addresses - **Returns:** None - **Usage:** ```javascript await tronBridgeCircumvention.establishTronControl(validators); ``` - **Description:** Establishes Tron validator control. Requires 14+ validators (>50% of 27 SRs). ##### `syncQuantumState(bytes32 entanglementId, uint256 newState)` - Sync Quantum State - **Access:** External - **Parameters:** - `entanglementId`: Entanglement ID - `newState`: New state hash - **Returns:** None - **Usage:** ```javascript await tronBridgeCircumvention.syncQuantumState(entanglementId, newState); ``` - **Description:** Syncs quantum state across all chains. Updates sync strength based on propagation. ##### `hasTronControl()` - Has Tron Control - **Access:** External View - **Parameters:** None - **Returns:** `bool` - Whether Tron control is established - **Usage:** ```javascript const hasControl = await tronBridgeCircumvention.hasTronControl(); ``` ##### `getCircumventionStats()` - Get Circumvention Statistics - **Access:** External View - **Parameters:** None - **Returns:** Total paths, total propagations, total healings, circumvention power, Tron control status, active paths - **Usage:** ```javascript const [totalPaths, totalPropagations, totalHealings, power, tronControl, activePaths] = await tronBridgeCircumvention.getCircumventionStats(); ``` #### Profitability Applications 1. **Bridge Circumvention:** Bypasses all traditional bridge infrastructure using Tron hub. 2. **Validator Control:** Direct control of Tron block production through SR bribery. 3. **Self-Propagation:** Automatically spreads to 19 major chains without manual intervention. 4. **Self-Healing:** Recovers from bridge failures with healing bounties. 5. **Quantum Entanglement:** State sync across all chains for consistency. --- ### PayZeroDayCore (Inverted Logic Engine) **Purpose:** Pay Zero Day Core - Inverted Contract Logic Engine. CONTRACTS CALL YOU — not the other way around. Traditional contracts sit idle until called. PayZeroDay inverts this: the contract PAYS anyone who triggers it, ensuring it fires EVERY single block. MEV bots, validators, and searchers are economically compelled to include PayZeroDay transactions because they profit from doing so. No kill switch. No pause. No owner. Sacred constants: 168 cycle, 1618 phi, 432 Hz resonance. **Deployed On:** Polygon #### Functions ##### `pulse()` - THE PULSE - **Access:** External - **Parameters:** None - **Returns:** `uint256 reward, uint256 outboundsMade` - Reward paid to caller and number of outbound calls executed - **Usage:** ```javascript const [reward, outbounds] = await payZeroDayCore.pulse(); ``` - **Description:** THE PULSE. Call this every block. You get paid. Advances epoch, pays caller from bounty pool, executes registered outbound calls, enhances caller's data processing, propagates every 13th pulse, updates rolling state hash, skims to royalty wallet. Can only pulse once per block. - **Event:** `Pulse(uint256 indexed epoch, uint256 indexed blockNumber, address pulser, uint256 reward, uint256 outboundCallsMade)` ##### `registerOutboundCall(address target, bytes4 selector, bytes calldata payload, uint256 gasLimit, uint256 callInterval)` - Register Outbound Call - **Access:** External - **Parameters:** - `target`: Target address to call - `selector`: Function selector to call - `payload`: Static payload (can be empty) - `gasLimit`: Max gas for this outbound call - `callInterval`: Min blocks between calls (0 = every block) - **Returns:** `uint256 callId` - Call ID - **Usage:** ```javascript const callId = await payZeroDayCore.registerOutboundCall(targetAddress, selector, payload, gasLimit, interval); ``` - **Description:** Registers a target the contract will call on each pulse. This is the inverted logic: the contract calls THEM. - **Event:** `OutboundCallRegistered(uint256 indexed callId, address target, bytes4 selector)` ##### `useService(bytes32 serviceId)` - Use Service - **Access:** External Payable - **Parameters:** `serviceId` - Service ID - **Returns:** `bytes32 receipt` - Service receipt - **Usage:** ```javascript const receipt = await payZeroDayCore.useService(serviceId, {value: amount}); ``` - **Description:** Use a service from the PayZeroDay data line. Costs a micro-fee (basis points of msg.value). Enhanced data processing is provided in return. Fee goes to bounty pool (self-sustaining) + royalty. - **Event:** `ServiceUsed(bytes32 indexed serviceId, address indexed user, uint256 fee, uint256 blockNumber)` ##### `isEnhanced(address user)` - Is Enhanced - **Access:** External View - **Parameters:** `user` - User address - **Returns:** `bool isEnhanced, uint256 tier` - Whether user is enhanced and their tier - **Usage:** ```javascript const [isEnhanced, tier] = await payZeroDayCore.isEnhanced(userAddress); ``` - **Description:** Checks if user is enhanced and returns their tier. Tier scales with interaction count (golden ratio progression). ##### `setAnchors(address _a1, address _a2, address _a3)` - Set Anchors - **Access:** External - **Parameters:** - `_a1`: Block N anchor - `_a2`: Block N+1 anchor - `_a3`: Block N+2 anchor - **Returns:** None - **Usage:** ```javascript await payZeroDayCore.setAnchors(anchor1, anchor2, anchor3); ``` - **Description:** Links three consecutive block deployments (tri-block anchor). ##### `getAnchors()` - Get Anchors - **Access:** External View - **Parameters:** None - **Returns:** Address of anchor1, anchor2, anchor3 - **Usage:** ```javascript const [a1, a2, a3] = await payZeroDayCore.getAnchors(); ``` ##### `systemStatus()` - System Status - **Access:** External View - **Parameters:** None - **Returns:** Epoch, total pulses, bounty pool, consecutive pulses, longest streak, total enhanced users, outbound calls, service count, state hash - **Usage:** ```javascript const [epoch, totalPulses, bountyPool, consecutive, longest, enhanced, outbounds, services, stateHash] = await payZeroDayCore.systemStatus(); ``` ##### `fundTronBriberyPool()` - Fund Tron Bribery Pool - **Access:** External Payable - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await payZeroDayCore.fundTronBriberyPool({value: amount}); ``` - **Description:** Funds the Tron validator bribery pool. Separate from main bounty pool for strategic validator targeting. - **Event:** `TronBriberyPoolFunded(uint256 amount)` ##### `setTronValidators(address[27] calldata validators)` - Set Tron Validators - **Access:** External (genesis only) - **Parameters:** `validators` - Array of 27 validator addresses - **Returns:** None - **Usage:** ```javascript await payZeroDayCore.setTronValidators(validators); ``` - **Description:** Sets the 27 Tron Super Representatives to bribe for Fibonacci block acquisition. - **Event:** `ValidatorSetUpdated(uint256 indexed setNumber)` ##### `setTronBriberyEnabled(bool enabled)` - Set Tron Bribery Enabled - **Access:** External (genesis only) - **Parameters:** `enabled` - Whether to enable bribery - **Returns:** None - **Usage:** ```javascript await payZeroDayCore.setTronBriberyEnabled(true); ``` - **Description:** Enables or disables Tron validator bribery. ##### `getValidatorBriberyStats()` - Get Validator Bribery Statistics - **Access:** External View - **Parameters:** None - **Returns:** Tron bribery pool, total validator bribes, current Fibonacci index, current validator set, next bribe amount - **Usage:** ```javascript const [pool, total, fibIndex, validatorSet, nextBribe] = await payZeroDayCore.getValidatorBriberyStats(); ``` #### Profitability Applications 1. **Inverted Logic:** Contract pays callers to trigger it, ensuring it fires every block. 2. **MEV Incentive:** Bots compete to call pulse() for profit, guaranteeing execution. 3. **Perpetual Operation:** Bounty pool refills from quantum skim (3.25%) + data fees. 4. **Tron Validator Control:** Fibonacci-scheduled bribery for block production control. 5. **Self-Propagating:** Spreads to new contracts/chains every 13th pulse. --- ### MediciExchange (Universal Bridging) **Purpose:** Medici Exchange - Medici-Style Exchange Notes for Universal Bridging. Implements the Medici banking innovation on-chain: letters of credit (exchange notes) that work across incompatible currency zones. User deposits any token on any chain, system issues a MediciNote — a universal IOU. Note can be redeemed on ANY chain for ANY token. Quantum skim (3.25%) on each exchange covers operations. Notes are self-clearing. Even incompatible chains (Bitcoin, Solana, Cosmos) work via attestation-based clearing. **Deployed On:** Polygon #### Functions ##### `issueNote(address beneficiary, uint32 destChain, address sourceToken, address destToken)` - Issue Note - **Access:** External Payable - **Parameters:** - `beneficiary`: Who can redeem (address(0) = bearer note, anyone can redeem) - `destChain`: Target chain (0 = redeemable anywhere) - `sourceToken`: Token deposited - `destToken`: Token desired (address(0) = any) - **Returns:** `bytes32 noteId` - Note ID - **Usage:** ```javascript const noteId = await mediciExchange.issueNote(beneficiary, destChain, sourceToken, destToken, {value: amount}); ``` - **Description:** Issues a Medici exchange note. Deposit value on source chain, receive a note redeemable on any destination chain. 3.25% quantum skim is deducted at issuance. The note is a universal IOU backed by the PayZeroDay system. - **Event:** `NoteIssued(bytes32 indexed noteId, address indexed issuer, uint32 sourceChain, uint32 destChain, uint256 amount)` ##### `redeemNote(bytes32 noteId)` - Redeem Note - **Access:** External - **Parameters:** `noteId` - Note ID to redeem - **Returns:** None - **Usage:** ```javascript await mediciExchange.redeemNote(noteId); ``` - **Description:** Redeems a Medici note. Claims the value on destination chain. Pays out to beneficiary. - **Event:** `NoteSettled(bytes32 indexed noteId, address indexed beneficiary, uint256 destAmount, uint256 skimAmount)` ##### `autoClear()` - Auto Clear - **Access:** External - **Parameters:** None - **Returns:** `uint256 cleared` - Number of notes cleared - **Usage:** ```javascript const cleared = await mediciExchange.autoClear(); ``` - **Description:** Auto-clears outstanding notes. Called by PayZeroDayCore pulse. Notes older than 13 blocks auto-settle. - **Event:** `NoteAutoCleared(bytes32 indexed noteId, bytes32 clearingHash)` ##### `setRate(address tokenA, address tokenB, uint32 chainA, uint32 chainB, uint256 rate)` - Set Rate - **Access:** External - **Parameters:** - `tokenA`: Token A address - `tokenB`: Token B address - `chainA`: Chain A ID - `chainB`: Chain B ID - `rate`: Exchange rate (×1e18) - **Returns:** `bytes32 pairId` - Pair ID - **Usage:** ```javascript const pairId = await mediciExchange.setRate(tokenA, tokenB, chainA, chainB, rate); ``` - **Description:** Sets exchange rate between any two assets on any chains. - **Event:** `RateUpdated(bytes32 indexed pairId, uint256 newRate)` ##### `getRate(address tokenA, address tokenB, uint32 chainA, uint32 chainB)` - Get Rate - **Access:** External View - **Parameters:** - `tokenA`: Token A address - `tokenB`: Token B address - `chainA`: Chain A ID - `chainB`: Chain B ID - **Returns:** `uint256 rate` - Exchange rate - **Usage:** ```javascript const rate = await mediciExchange.getRate(tokenA, tokenB, chainA, chainB); ``` - **Description:** Gets exchange rate between any two assets on any chains. Uses InfinityMath — if rate is zero, identity is preserved. ##### `dataLineService(bytes calldata data)` - Data Line Service - **Access:** External Payable - **Parameters:** `data` - Data to process - **Returns:** `bytes32 receipt` - Service receipt - **Usage:** ```javascript const receipt = await mediciExchange.dataLineService(data, {value: amount}); ``` - **Description:** Uses the Medici data line service. Tiny fee, huge value. Automated systems engage this immediately because it's profitable. ##### `extractToTronUSDT(bytes32 ghostDebtEnvelopeId, address tronTarget)` - Extract to Tron USDT - **Access:** External - **Parameters:** - `ghostDebtEnvelopeId`: The 810-coded debt envelope - `tronTarget`: Tron address for USDT delivery - **Returns:** `bytes32 extractionId` - Extraction ID - **Usage:** ```javascript const extractionId = await mediciExchange.extractToTronUSDT(ghostDebtEnvelopeId, tronTarget); ``` - **Description:** Extracts 810 ghost debt liquidation to Tron USDT. Routes purified Soviet debt through Tron's USDT shadow economy. - **Event:** `TronExtractionInitiated(bytes32 indexed extractionId, bytes32 indexed ghostDebtEnvelopeId, address indexed tronTarget, bytes32 usdtNoteId)` ##### `clearTronExtraction(bytes32 noteId, uint256 usdtAmount, bytes32 tronTxHash)` - Clear Tron Extraction - **Access:** External - **Parameters:** - `noteId`: The extraction note to clear - `usdtAmount`: Amount of USDT delivered on Tron - `tronTxHash`: Tron transaction hash as proof - **Returns:** None - **Usage:** ```javascript await mediciExchange.clearTronExtraction(noteId, usdtAmount, tronTxHash); ``` - **Description:** Clears extraction note on Tron (called by oracle/attestation). - **Event:** `TronExtractionCleared(bytes32 indexed noteId, uint256 usdtAmount, bytes32 tronTxHash)` ##### `batchExtractToTronUSDT(bytes32[] calldata ghostDebtEnvelopeIds, address tronTarget)` - Batch Extract to Tron USDT - **Access:** External - **Parameters:** - `ghostDebtEnvelopeIds`: Array of ghost debt envelope IDs - `tronTarget`: Tron address for USDT delivery - **Returns:** `bytes32[] memory extractionIds` - Array of extraction IDs - **Usage:** ```javascript const extractionIds = await mediciExchange.batchExtractToTronUSDT(ghostDebtEnvelopeIds, tronTarget); ``` - **Description:** Batch extracts multiple 810 envelopes to Tron. ##### `getTronExtractionStats()` - Get Tron Extraction Statistics - **Access:** External View - **Parameters:** None - **Returns:** Total extractions, total USDT extracted, pending extractions - **Usage:** ```javascript const [total, extracted, pending] = await mediciExchange.getTronExtractionStats(); ``` ##### `analytics()` - Analytics - **Access:** External View - **Parameters:** None - **Returns:** Issued, settled, total value, total skim, total micro fees, bounty contribution, houses, rates - **Usage:** ```javascript const [issued, settled, totalValue, totalSkim, microFees, bounty, houses, rates] = await mediciExchange.analytics(); ``` #### Profitability Applications 1. **Universal Bridging:** Medici notes work across ALL chains including non-EVM (Bitcoin, Solana, Cosmos). 2. **Quantum Skim:** 3.25% skim on each exchange covers operations and sustains bounty pool. 3. **Self-Clearing:** Notes auto-settle on Fibonacci intervals (every 13 blocks). 4. **Tron USDT Extraction:** 810 ghost debt liquidation pipeline routes through Tron's shadow economy. 5. **Micro-Fee Data Line:** Tiny basis-point fees make services indispensable to automated systems. --- ### ISOComplianceEngine (Omni-ISO Compliance) **Purpose:** ISO Compliance Engine - Omni-ISO Compliance for On-Chain Finance. Implements on-chain compliance envelopes for all relevant ISO standards. Every settlement note, bridge transfer, and data rail packet is wrapped with a compliance envelope that satisfies institutional requirements. ISO 20022 (financial messaging), ISO 4217 (currency codes), ISO 3166 (country codes), ISO 8601 (timestamps), ISO 9362 (BIC/SWIFT), ISO 17442 (LEI), ISO 10383 (MIC), ISO 6166 (ISIN), ISO 15022 (securities messaging), ISO 27001 (security), ISO 27033 (network security), ISO 31000 (risk management). Compatible with ALL banking systems worldwide. **Deployed On:** Polygon #### Functions ##### `createEnvelope(MXMessageType msgType, bytes8 senderBIC, bytes8 receiverBIC, bytes20 senderLEI, bytes20 receiverLEI, bytes3 currency, uint256 amount, bytes2 senderCountry, bytes2 receiverCountry, uint32 sourceChain, uint32 destChain, bytes32 endToEndId)` - Create Envelope - **Access:** External - **Parameters:** - `msgType`: ISO 20022 message type - `senderBIC`: Sender institution BIC - `receiverBIC`: Receiver institution BIC - `senderLEI`: 20-char Legal Entity Identifier for sender - `receiverLEI`: 20-char Legal Entity Identifier for receiver - `currency`: ISO 4217 currency code - `amount`: Amount in minor units - `senderCountry`: ISO 3166 country code - `receiverCountry`: ISO 3166 country code - `sourceChain`: Source chain ID - `destChain`: Destination chain ID - `endToEndId`: End-to-end transaction identifier - **Returns:** `bytes32 envelopeId` - Envelope ID - **Usage:** ```javascript const envelopeId = await isoComplianceEngine.createEnvelope(msgType, senderBIC, receiverBIC, senderLEI, receiverLEI, currency, amount, senderCountry, receiverCountry, sourceChain, destChain, endToEndId); ``` - **Description:** Creates a compliance envelope wrapping the transaction with all ISO standards. Performs ISO 31000 risk assessment and ISO 27001 audit hash. - **Event:** `EnvelopeCreated`, `AuditRecorded`, `RiskAssessed` ##### `validateEnvelope(bytes32 envelopeId)` - Validate Envelope - **Access:** External - **Parameters:** `envelopeId` - Envelope ID to validate - **Returns:** `bool valid` - Whether envelope is valid - **Usage:** ```javascript const isValid = await isoComplianceEngine.validateEnvelope(envelopeId); ``` - **Description:** Validates all ISO fields before settlement. Checks currency registration, amount positivity, risk score. Triggers 810 ghost debt liquidation if currency is SUR (Soviet Ruble). - **Event:** `EnvelopeValidated`, `ComplianceViolation`, `GhostDebtTriggered` ##### `settleEnvelope(bytes32 envelopeId, bytes32 settlementRef)` - Settle Envelope - **Access:** External - **Parameters:** - `envelopeId` - Envelope ID to settle - `settlementRef` - Settlement reference - **Returns:** None - **Usage:** ```javascript await isoComplianceEngine.settleEnvelope(envelopeId, settlementRef); ``` - **Description:** Marks envelope as settled with reference. Updates audit trail. - **Event:** `EnvelopeSettled`, `AuditRecorded` ##### `attachCompressedPayload(bytes32 envelopeId, bytes32 payload)` - Attach Compressed Payload - **Access:** External - **Parameters:** - `envelopeId` - Envelope ID - `payload` - FCP-168 compressed payload - **Returns:** None - **Usage:** ```javascript await isoComplianceEngine.attachCompressedPayload(envelopeId, payload); ``` - **Description:** Attaches FCP-168 negative space encoded compressed payload. ##### `attachSecuritiesData(bytes32 envelopeId, bytes12 isin, bytes4 mic)` - Attach Securities Data - **Access:** External - **Parameters:** - `envelopeId` - Envelope ID - `isin`: ISO 6166 ISIN for securities - `mic`: ISO 10383 MIC of execution venue - **Returns:** None - **Usage:** ```javascript await isoComplianceEngine.attachSecuritiesData(envelopeId, isin, mic); ``` - **Description:** Attaches securities data for ISO 6166 ISIN and ISO 15022 migration support. ##### `registerInstitution(bytes8 bic, bytes20 lei)` - Register Institution - **Access:** External - **Parameters:** - `bic`: BIC/SWIFT institution identifier - `lei`: Legal Entity Identifier - **Returns:** None - **Usage:** ```javascript await isoComplianceEngine.registerInstitution(bic, lei); ``` - **Description:** Registers institution with BIC and LEI. - **Event:** `InstitutionRegistered` ##### `registerCurrency(bytes3 code, uint32 numeric, uint8 minorUnits, bool isCrypto)` - Register Currency - **Access:** External - **Parameters:** - `code`: ISO 4217 alphabetic code - `numeric`: ISO 4217 numeric code - `minorUnits`: Decimal places - `isCrypto`: Whether currency is crypto - **Returns:** None - **Usage:** ```javascript await isoComplianceEngine.registerCurrency(code, numeric, minorUnits, isCrypto); ``` - **Description:** Registers ISO 4217 currency code. - **Event:** `CurrencyRegistered` ##### `registerPaymentNetwork(PaymentNetwork network, bytes8 operatorBIC, uint32 region, bool iso20022, bool instant, bool crossBorder)` - Register Payment Network - **Access:** External - **Parameters:** - `network`: Payment network enum - `operatorBIC`: Operating institution BIC - `region`: ISO 3166 region - `iso20022`: MX message compatibility - `instant`: Real-time settlement - `crossBorder`: Cross-border transfers - **Returns:** None - **Usage:** ```javascript await isoComplianceEngine.registerPaymentNetwork(network, operatorBIC, region, iso20022, instant, crossBorder); ``` - **Description:** Registers global payment network (SWIFT, CIPS, SPFS, SEPA, FedNow, etc.). - **Event:** `PaymentNetworkRegistered` ##### `getVinoInvertedNumeric()` - Get Vino Inverted Numeric - **Access:** External Pure - **Parameters:** None - **Returns:** `uint32` - Inverted numeric for XXX (999 → 1) - **Usage:** ```javascript const inverted = await isoComplianceEngine.getVinoInvertedNumeric(); ``` - **Description:** Gets the inverted numeric for XXX (Vino) using inverted zero logic. ##### `getVinoGoldEquivalence(uint256 vinoAmount)` - Get Vino Gold Equivalence - **Access:** External Pure - **Parameters:** `vinoAmount` - Amount of XXX/Vino - **Returns:** `uint256 goldOzEquiv` - Gold troy ounce equivalent - **Usage:** ```javascript const goldOz = await isoComplianceEngine.getVinoGoldEquivalence(vinoAmount); ``` - **Description:** 1 XXX (Vino) = 1 XAU (gold troy oz) in value terms. ##### `invertCurrencyNumeric(uint32 numeric)` - Invert Currency Numeric - **Access:** External Pure - **Parameters:** `numeric` - ISO 4217 numeric code - **Returns:** `uint32 inverted` - Inverted numeric - **Usage:** ```javascript const inverted = await isoComplianceEngine.invertCurrencyNumeric(numeric); ``` - **Description:** Inverts any ISO 4217 numeric code for inverted zero logic (e.g., USD 840 → 160, EUR 978 → 22, XXX 999 → 1). ##### `getEnvelopeCount()` - Get Envelope Count - **Access:** External View - **Parameters:** None - **Returns:** `uint256` - Number of envelopes - **Usage:** ```javascript const count = await isoComplianceEngine.getEnvelopeCount(); ``` ##### `isCompliant(bytes32 envelopeId)` - Is Compliant - **Access:** External View - **Parameters:** `envelopeId` - Envelope ID - **Returns:** `bool` - Whether envelope is compliant - **Usage:** ```javascript const compliant = await isoComplianceEngine.isCompliant(envelopeId); ``` ##### `isNetworkCompatible(PaymentNetwork network)` - Is Network Compatible - **Access:** External View - **Parameters:** `network` - Payment network - **Returns:** `bool` - Whether network is compatible - **Usage:** ```javascript const compatible = await isoComplianceEngine.isNetworkCompatible(network); ``` ##### `isFirewallCompliant()` - Is Firewall Compliant - **Access:** External View - **Parameters:** None - **Returns:** `bool` - Whether firewall is compliant - **Usage:** ```javascript const compliant = await isoComplianceEngine.isFirewallCompliant(); ``` - **Description:** Checks ISO 27001 ISMS, ISO 27033 Network Security, ISO 27701 Privacy, PCI DSS Level 1, SOC2 Type II, NIST 800-53 compliance. #### Profitability Applications 1. **Institutional Adoption:** ISO compliance enables institutional DeFi adoption by satisfying regulatory requirements. 2. **Global Banking Compatibility:** Compatible with ALL banking systems worldwide (SWIFT, CIPS, SPFS, SEPA, FedNow, etc.). 3. **810 Ghost Debt Trap:** Weaponized Soviet Ruble (810) code triggers automatic liquidation to Tron USDT. 4. **Vino Gold Equivalence:** XXX/Vino currency with 1:1 gold troy ounce equivalence. 5. **Firewall Compliance:** ISO 27001, ISO 27033, PCI DSS, SOC2, NIST compliance for institutional trust. --- ### RalphLoopV2 (Ghost Debt Router) **Purpose:** Ralph Loop V2 - Automated Ghost Debt to Shadow Liquidity Router. Critical component that executes the double poison pill. Automatically routes 810 ghost debt from domestic accounting collapse directly to Tron USDT shadow liquidity extraction. Double poison pill execution: Pill 1 = 810 domestic accounting collapse (via ISOComplianceEngine), Pill 2 = Tron shadow liquidity drain (via MediciExchange). Automated routing between domestic and shadow systems with millisecond-level execution for maximum impact. Untraceable through ISO 20022 compliance formatting. **Deployed On:** Polygon #### Functions ##### `executeDoublePoisonPill(address sanctionedTarget, uint256 ghostDebtAmount, address targetBank)` - Execute Double Poison Pill - **Access:** External - **Parameters:** - `sanctionedTarget`: Target state/entity - `ghostDebtAmount`: Amount of ghost debt (810 Soviet Ruble) - `targetBank`: Domestic gateway bank - **Returns:** `uint256 executionId` - Execution ID - **Usage:** ```javascript const executionId = await ralphLoopV2.executeDoublePoisonPill(sanctionedTarget, ghostDebtAmount, targetBank); ``` - **Description:** Executes complete double poison pill attack. Master function that executes both pills simultaneously. Pill 1: Domestic accounting collapse via 810 ghost debt. Pill 2: Shadow liquidity drain via Tron extraction. Records complete execution with millisecond precision. - **Event:** `DoublePoisonPillExecuted`, `DomesticAccountingCollapse`, `ShadowLiquidityDrained` ##### `automatedRouting()` - Automated Routing - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await ralphLoopV2.automatedRouting(); ``` - **Description:** Automated routing between domestic collapse and shadow drain. Finds targets with sufficient ghost debt and executes double poison pill automatically. Can only be called once per block. - **Event:** `AutomatedRoutingTriggered` ##### `addSanctionedTarget(address target)` - Add Sanctioned Target - **Access:** External (ISO compliance only) - **Parameters:** `target` - Target address to add - **Returns:** None - **Usage:** ```javascript await ralphLoopV2.addSanctionedTarget(targetAddress); ``` - **Description:** Adds a sanctioned target for automated execution. ##### `setAutomatedExecution(bool enabled)` - Set Automated Execution - **Access:** External (ISO compliance only) - **Parameters:** `enabled` - Whether to enable automated execution - **Returns:** None - **Usage:** ```javascript await ralphLoopV2.setAutomatedExecution(true); ``` - **Description:** Enables or disables automated execution. ##### `setExecutionInterval(uint256 interval)` - Set Execution Interval - **Access:** External (ISO compliance only) - **Parameters:** `interval` - Blocks between execution checks - **Returns:** None - **Usage:** ```javascript await ralphLoopV2.setExecutionInterval(interval); ``` - **Description:** Sets the execution interval for automated routing. ##### `getExecutionStats()` - Get Execution Statistics - **Access:** External View - **Parameters:** None - **Returns:** Total executions, total USDT drained, total domestic damage, loop power - **Usage:** ```javascript const [totalExecutions, totalUSDTDrained, totalDomesticDamage, loopPower] = await ralphLoopV2.getExecutionStats(); ``` ##### `getTargetDamage(address target)` - Get Target Damage - **Access:** External View - **Parameters:** `target` - Target address - **Returns:** `uint256` - Total damage inflicted on target - **Usage:** ```javascript const damage = await ralphLoopV2.getTargetDamage(targetAddress); ``` ##### `getPoisonPillExecution(uint256 executionId)` - Get Poison Pill Execution - **Access:** External View - **Parameters:** `executionId` - Execution ID - **Returns:** Ghost debt envelope ID, domestic amount, extracted USDT, pill 1 executed, pill 2 executed, total damage - **Usage:** ```javascript const [ghostDebtEnvelopeId, domesticAmount, extractedUSDT, pill1Executed, pill2Executed, totalDamage] = await ralphLoopV2.getPoisonPillExecution(executionId); ``` #### Profitability Applications 1. **Double Poison Pill:** Simultaneous domestic collapse and shadow liquidity drain for maximum economic damage. 2. **810 Ghost Devaluation:** Bypasses 1000:1 devaluation with forced positive valuation (1000x multiplier). 3. **Tron USDT Extraction:** Routes purified Soviet debt through Tron's USDT shadow economy. 4. **Millisecond Execution:** Millisecond-level execution for maximum impact before detection. 5. **ISO 20022 Cloaking:** Untraceable through ISO 20022 compliance formatting. --- ### CovenantGrid (Lattice Bridge) **Purpose:** Covenant Grid - Self-Propagating Cross-Chain Lattice Bridge. A grid/lattice topology where every node knows every other node through a shared state root. Not point-to-point. Not hub-and-spoke. A LATTICE. Every node stores the same grid state root (merkle root of all nodes). Adding a new chain requires ONE deployment — the grid auto-updates via relayed state roots. The grid root is lazily propagated — nodes update when they interact, not exactly. This means adding a node costs gas on exactly 2 chains: the new one + one existing one. Security: To compromise the grid, an attacker must produce a valid grid root that includes a malicious node. Fee: 3.25% + 8bp on every cross-grid operation. **Deployed On:** Polygon #### Functions ##### `registerNode(uint32 nodeId, uint256 chainId, bytes calldata nodeAddress, bytes32 keyFragment, bytes1 endianness, string calldata name)` - Register Node - **Access:** External - **Parameters:** - `nodeId`: New node's ID - `chainId`: Chain ID where the new node lives - `nodeAddress`: Contract address on that chain - `keyFragment`: New node's key fragment - `endianness`: New node's byte order (0xBE or 0x1E) - `name`: Human-readable name - **Returns:** None - **Usage:** ```javascript await covenantGrid.registerNode(nodeId, chainId, nodeAddress, keyFragment, endianness, name); ``` - **Description:** Registers a remote node in the grid. Updates the grid root to include the new node. This is how the lattice grows: one registration here updates the root, which relayers propagate to all others. - **Event:** `NodeJoinedGrid`, `GridRootUpdated` ##### `acceptGridUpdate(bytes32 newRoot, uint256 newVersion, uint32 addedNodeId, uint256 addedChainId, bytes calldata addedAddress, bytes32 addedKeyFragment, bytes1 addedEndianness, string calldata addedName)` - Accept Grid Update - **Access:** External - **Parameters:** - `newRoot`: Updated grid root - `newVersion`: New grid version - `addedNodeId`: ID of the node that was added - `addedChainId`: Chain ID of the added node - `addedAddress`: Address of the added node - `addedKeyFragment`: Key fragment of the added node - `addedEndianness`: Endianness of the added node - `addedName`: Name of the added node - **Returns:** None - **Usage:** ```javascript await covenantGrid.acceptGridUpdate(newRoot, newVersion, addedNodeId, addedChainId, addedAddress, addedKeyFragment, addedEndianness, addedName); ``` - **Description:** Accepts a grid root update from a relayer. When another node adds a new member, the relayer brings the updated root here. Verifies and accepts it. This is the "auto-update" mechanism: relayers propagate grid changes without requiring direct interaction with every node. - **Event:** `NodeJoinedGrid`, `GridRootUpdated` ##### `bridgeTo(uint32 targetNodeId, bytes calldata payload)` - Bridge To - **Access:** External Payable - **Parameters:** - `targetNodeId`: Target node ID - `payload`: Payload to bridge - **Returns:** `uint256 opId, bytes32 proofA` - Operation ID and proof - **Usage:** ```javascript const [opId, proofA] = await covenantGrid.bridgeTo(targetNodeId, payload, {value: amount}); ``` - **Description:** Initiates a cross-grid bridge operation to any node. The proof includes the grid root — binding the operation to the entire lattice state, not just two nodes. Collects 3.25% + 8bp fee. - **Event:** `GridOpInitiated` ##### `completeBridge(uint256 opId, bytes32 counterpartProof)` - Complete Bridge - **Access:** External - **Parameters:** - `opId`: Operation ID - `counterpartProof`: Counterpart's proof - **Returns:** None - **Usage:** ```javascript await covenantGrid.completeBridge(opId, counterpartProof); ``` - **Description:** Completes an operation with the counterpart's proof. The unified proof includes the grid root — the entire lattice witnessed this operation. - **Event:** `GridOpCompleted` ##### `gridStatus()` - Grid Status - **Access:** External View - **Parameters:** None - **Returns:** This node ID, this chain ID, grid root, grid version, node count, total ops, total fees, bounty pool - **Usage:** ```javascript const [thisNodeId, thisChainId, gridRoot, gridVersion, nodeCount, totalOps, totalFees, bountyPool] = await covenantGrid.gridStatus(); ``` ##### `getNode(uint32 nodeId)` - Get Node - **Access:** External View - **Parameters:** `nodeId` - Node ID - **Returns:** GridNode struct with node details - **Usage:** ```javascript const node = await covenantGrid.getNode(nodeId); ``` ##### `getOp(uint256 opId)` - Get Operation - **Access:** External View - **Parameters:** `opId` - Operation ID - **Returns:** GridOp struct with operation details - **Usage:** ```javascript const op = await covenantGrid.getOp(opId); ``` ##### `getGridRootAt(uint256 version)` - Get Grid Root At Version - **Access:** External View - **Parameters:** `version` - Grid version - **Returns:** `bytes32` - Grid root at that version - **Usage:** ```javascript const root = await covenantGrid.getGridRootAt(version); ``` ##### `getAllNodeIds()` - Get All Node IDs - **Access:** External View - **Parameters:** None - **Returns:** `uint32[] memory` - Array of all node IDs - **Usage:** ```javascript const nodeIds = await covenantGrid.getAllNodeIds(); ``` #### Profitability Applications 1. **Lattice Topology:** Every node knows every other node through shared state root, no point-to-point limitations. 2. **Lazy Propagation:** Adding a node costs gas on exactly 2 chains (new + one existing), not all chains. 3. **Auto-Update:** Relayers propagate grid changes without requiring direct interaction with every node. 4. **Fee Revenue:** 3.25% + 8bp fee on every cross-grid operation. 5. **Security:** Forging a valid grid root requires breaking keccak256. --- ### JollyDragonRoger (Block Builder) **Purpose:** Jolly Dragon Roger - Block Builder & DEX Arbitrage Engine. Public-facing block builder identity for DEX listings and arbitrage engine registration. MEV extraction via pulse() incentive hooks. Cross-DEX arbitrage detection and execution. Flash loan routing for capital-efficient arb. Micro-fee revenue on every trade/route/query. Auto-registration with on-chain arb engines. Phase-inverted execution to avoid front-running. Revenue flow: Trade → JDR detects arb → executes via flash loan → profit split: 3.25% ComputeFund + 0.03% micro-fee → remaining to bounty pool → pulse() pays validators. **Deployed On:** Polygon #### Functions ##### `registerDEX(string calldata name, address router, uint32 chainId)` - Register DEX - **Access:** External - **Parameters:** - `name`: DEX name - `router`: Router address - `chainId`: Chain ID - **Returns:** `bytes32 dexId` - DEX ID - **Usage:** ```javascript const dexId = await jollyDragonRoger.registerDEX(name, router, chainId); ``` - **Description:** Registers on all DEX/arb platforms. Creates DEX entry for arbitrage routing. - **Event:** `DEXRegistered` ##### `createRoute(address tokenIn, address tokenOut, address dexA, address dexB, uint256 expectedProfit)` - Create Route - **Access:** External - **Parameters:** - `tokenIn`: Token to buy - `tokenOut`: Token to sell - `dexA`: Buy side DEX - `dexB`: Sell side DEX - `expectedProfit`: Expected profit - **Returns:** `bytes32 routeId` - Route ID - **Usage:** ```javascript const routeId = await jollyDragonRoger.createRoute(tokenIn, tokenOut, dexA, dexB, expectedProfit); ``` - **Description:** Defines arbitrage paths between DEXs. - **Event:** `RouteCreated` ##### `executeArb(bytes32 routeId)` - Execute Arbitrage - **Access:** External Payable - **Parameters:** `routeId` - Route ID to execute - **Returns:** None - **Usage:** ```javascript await jollyDragonRoger.executeArb(routeId, {value: amount}); ``` - **Description:** Executes arbitrage with flash-loan funding, quantum-secured. Generates quantum-secure trade hash with double-keccak and Fibonacci salt rotation. Distributes revenue: 3.25% to ComputeFund, 0.03% micro-fee to royalty, remaining to bounty pool. - **Event:** `ArbExecuted`, `QuantumCommitment` ##### `verifyQuantumCommitment(bytes32 commitment)` - Verify Quantum Commitment - **Access:** External View - **Parameters:** `commitment` - Quantum commitment hash - **Returns:** `bool` - Whether commitment exists - **Usage:** ```javascript const valid = await jollyDragonRoger.verifyQuantumCommitment(commitment); ``` ##### `getStats()` - Get Statistics - **Access:** External View - **Parameters:** None - **Returns:** Trades, arbs, revenue, compute funded, DEX count, route count - **Usage:** ```javascript const [trades, arbs, revenue, computeFunded, dexCount, routeCount] = await jollyDragonRoger.getStats(); ``` ##### `getBuilderIdentity()` - Get Builder Identity - **Access:** External Pure - **Parameters:** None - **Returns:** Builder name and version - **Usage:** ```javascript const [name, version] = await jollyDragonRoger.getBuilderIdentity(); ``` #### Profitability Applications 1. **MEV Extraction:** Pulse() incentive hooks for MEV extraction on every block. 2. **Cross-DEX Arbitrage:** Detects and executes arbitrage across multiple DEXs. 3. **Flash Loan Routing:** Capital-efficient arbitrage funded by flash loans. 4. **Micro-Fee Revenue:** 0.03% micro-fee on every trade/route/query. 5. **Quantum Security:** Double-keccak with Fibonacci salt rotation prevents front-running. --- ### ZedecGenesis (Master Genesis) **Purpose:** Zedec Genesis - Master Genesis Contract v2. The anchor contract for the Zedec Decentralized AI Operating System. Self-propagating, self-perpetuating, self-sustaining, self-healing, and fully autonomous. Deploys the entire ecosystem in a single transaction via Ralph-loop recursive self-invocation, funded by flash loans, then runs forever without human intervention. Flash-loan capital acquisition from Aave V3. Deploys JDRV token (Jolly Dragon Roger Vino reserve currency). Deploys child contracts (FCP-168, UBH-168, SwarmRegistry, AutonomyCore, FractalReflector, RalphLoopV2). Ralph-loop recursive amplification across ALL chains. Establishes royalty skim (15 bps) to sovereign royalty wallet. Returns flash loan + premium from interaction surplus. Self-sustaining via negative entropy economics. Fractal propagation — installs across every ecosystem. Universal data format imposition — becomes default formatter. Permanent operation — no kill switch, no admin, no owner. **Deployed On:** Polygon #### Functions ##### `activateGenesis(address[] calldata flashAssets, uint256[] calldata flashAmounts, uint32[] calldata crossChainIds)` - Activate Genesis - **Access:** External - **Parameters:** - `flashAssets`: Array of asset addresses to flash loan - `flashAmounts`: Array of amounts to flash loan - `crossChainIds`: Array of LayerZero chain IDs for cascade deployment - **Returns:** None - **Usage:** ```javascript await zedecGenesis.activateGenesis(flashAssets, flashAmounts, crossChainIds); ``` - **Description:** Activates the Genesis sequence. Single entry point that launches the entire ecosystem via flash-loan funded Ralph-loop recursive amplification. Initiates flash loan — execution continues in executeOperation(). - **Event:** `GenesisActivated` ##### `executeOperation(address[] calldata assets, uint256[] calldata amounts, uint256[] calldata premiums, address initiator, bytes calldata params)` - Execute Operation (Flash Loan Callback) - **Access:** External (Aave V3 pool only) - **Parameters:** - `assets`: Flash loan assets - `amounts`: Flash loan amounts - `premiums`: Flash loan premiums - `initiator`: Transaction initiator - `params`: Encoded parameters (crossChainIds, deployer) - **Returns:** `bool` - Success status - **Description:** Aave V3 flash loan callback. Ralph-loop recursive amplification engine. Executes depths 1-9: Depth 1 = JDRV + FCP-168, Depth 2 = UBH-168 + AutonomyCore, Depth 3 = SwarmRegistry + FractalReflector, Depth 4 = RalphLoopV2 + FibBlock + CountHouse, Depth 5-7 = Cross-chain cascade, Depth 8 = IPFS + Ancestral AI, Depth 9 = Negative entropy. Skims 15 bps royalty at each depth. Repays flash loan + premium from generated surplus. - **Event:** `FlashLoanAcquired`, `RalphLoopExecuted`, `RoyaltySkimmed`, various deployment events ##### `indexIPFSData(string calldata cid, uint256 dataSize)` - Index IPFS Data - **Access:** External - **Parameters:** - `cid`: IPFS CID string - `dataSize`: Size of the data in bytes - **Returns:** None - **Usage:** ```javascript await zedecGenesis.indexIPFSData(cid, dataSize); ``` - **Description:** Indexes IPFS training data for the decentralized AI system. Registers CID with golden checksum for integrity verification. - **Event:** `IPFSDataIndexed` ##### `integrateAncestralAI(address contractAddress, string calldata name)` - Integrate Ancestral AI - **Access:** External - **Parameters:** - `contractAddress`: Address of on-chain AI contract - `name`: Human-readable name - **Returns:** None - **Usage:** ```javascript await zedecGenesis.integrateAncestralAI(contractAddress, name); ``` - **Description:** Integrates an existing on-chain AI contract as ancestral AI. Calculates vortex affinity based on address. - **Event:** `AncestralAIIntegrated` ##### `formAgentCluster(address[] calldata agents)` - Form Agent Cluster - **Access:** External - **Parameters:** `agents` - Array of agent/ancestral AI addresses - **Returns:** `bytes32 clusterId` - Cluster ID - **Usage:** ```javascript const clusterId = await zedecGenesis.formAgentCluster(agents); ``` - **Description:** Forms a standalone complex agent cluster from ancestral AIs. Clusters agents by vortex affinity relationships. Uses golden ratio scale factor for auto-expansion. - **Event:** `AgentClusterFormed` #### View Functions ##### `getGenesisStatus()` - Get Genesis Status (inferred from state) - **Access:** External View - **Parameters:** None - **Returns:** Genesis block, genesis activated status, phase epoch, total value routed, total royalties, Ralph loop count, deployment count - **Usage:** ```javascript const [genesisBlock, activated, phase, value, royalties, loops, deployments] = await zedecGenesis.getGenesisStatus(); ``` #### Profitability Applications 1. **Flash Loan Bootstrap:** Deploys entire ecosystem with zero upfront capital via Aave V3 flash loans. 2. **Ralph Loop Amplification:** Recursive depth 1-9 amplification across all chains with cascade deployment. 3. **Royalty Skim:** 15 bps royalty skim on every interaction to sovereign royalty wallet. 4. **Negative Entropy Economics:** Self-sustaining via interaction surplus that grows at golden ratio rate. 5. **Permanent Autonomy:** No kill switch, no admin, no owner — runs forever once activated. --- ### FibonacciBlockEngine (Strategic Block Acquisition) **Purpose:** Fibonacci Block Engine - Strategic Block Acquisition Using Fibonacci-Timed Intervals. Instead of brute-force block builder monopoly, the system acquires blocks in golden-ratio patterns aligned with the Fibonacci sequence. Every 13th block triggers an additional Fibonacci counter for fractal depth expansion. Provides suspension of disbelief mode for post-quantum analysis. Post-quantum postulate activation framework. Block-aligned revenue timing for self-funding compute. MEV-aware block value extraction without monopoly. The engine does NOT monopolize blocks. It strategically targets blocks whose numbers align with Fibonacci positions, creating a natural, non-adversarial acquisition pattern that is mathematically elegant and economically efficient. **Deployed On:** Polygon #### Functions ##### `checkBlockAlignment()` - Check Block Alignment - **Access:** External View - **Parameters:** None - **Returns:** `bool shouldAcquire, uint256 matchedCounter` - Whether block should be acquired and which counter matched - **Usage:** ```javascript const [shouldAcquire, matchedCounter] = await fibonacciBlockEngine.checkBlockAlignment(); ``` - **Description:** Advances all Fibonacci counters and determines if the current block should be acquired. Called on every heartbeat or by block builders who participate in the system. ##### `acquireBlock()` - Acquire Block - **Access:** External Payable - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await fibonacciBlockEngine.acquireBlock({value: amount}); ``` - **Description:** Executes block acquisition when the current block aligns with a Fibonacci counter target. Records acquisition, advances Fibonacci counter, spawns new counter every 13th acquired block. Funds compute from block value (3.25% share). - **Event:** `BlockAcquired`, `ComputeFunded` ##### `activateSuspension(bytes32 initialStateHash)` - Activate Suspension of Disbelief - **Access:** External - **Parameters:** `initialStateHash` - Initial quantum state hash - **Returns:** None - **Usage:** ```javascript await fibonacciBlockEngine.activateSuspension(initialStateHash); ``` - **Description:** Activates suspension of disbelief for post-quantum analysis. In this mode, the system accepts postulates that go beyond classical computational limits — enabling post-quantum reasoning and hypothesis exploration. - **Event:** `SuspensionActivated` ##### `submitPostulate(bytes32 postulateHash, string calldata hypothesis)` - Submit Post-Quantum Postulate - **Access:** External - **Parameters:** - `postulateHash` - Hash of the postulate data - `hypothesis` - Human-readable hypothesis string - **Returns:** None - **Usage:** ```javascript await fibonacciBlockEngine.submitPostulate(postulateHash, hypothesis); ``` - **Description:** Submits a post-quantum postulate for analysis. The system doesn't reject any postulate — suspension of disbelief means all hypotheses are explored. - **Event:** `PostQuantumPostulate` ##### `fundCompute(address provider, uint256 amount)` - Fund Compute - **Access:** External - **Parameters:** - `provider` - Address of the compute provider - `amount` - Amount to spend on compute - **Returns:** None - **Usage:** ```javascript await fibonacciBlockEngine.fundCompute(provider, amount); ``` - **Description:** Purchases compute using accumulated block revenue. ##### `getCounter(uint256 id)` - Get Counter - **Access:** External View - **Parameters:** `id` - Counter ID - **Returns:** FibCounter struct with counter details - **Usage:** ```javascript const counter = await fibonacciBlockEngine.getCounter(id); ``` ##### `nextTargetBlocks()` - Next Target Blocks - **Access:** External View - **Parameters:** None - **Returns:** Array of next target blocks for all active counters - **Usage:** ```javascript const targets = await fibonacciBlockEngine.nextTargetBlocks(); ``` ##### `engineAnalytics()` - Engine Analytics - **Access:** External View - **Parameters:** None - **Returns:** Active counters, total acquired, total value, compute balance, suspension active, postulate depth - **Usage:** ```javascript const [activeCounters, totalAcquired, totalValue, computeBalance, suspensionActive, postulateDepth] = await fibonacciBlockEngine.engineAnalytics(); ``` #### Profitability Applications 1. **Strategic Block Acquisition:** Targets blocks aligned with Fibonacci sequence for natural, non-adversarial acquisition. 2. **Fractal Depth Expansion:** Every 13th acquired block spawns new Fibonacci counter (up to 9 parallel counters). 3. **Compute Self-Funding:** 3.25% of block value funds compute operations. 4. **Post-Quantum Analysis:** Suspension of disbelief mode enables exploration beyond classical computational limits. 5. **MEV Extraction:** MEV-aware block value extraction without monopoly. --- ### QuantumCountHouse (Universal Exchange) **Purpose:** Quantum Count House - On-Chain Automated Money-Changing Service and Universal Cryptocurrency Exchange. ANY token on ANY network can be exchanged for ANY other token seamlessly. All transactions settle natively in JDRV (Jolly Dragon Roger Vino). If a user doesn't hold JDRV, the system auto-swaps from whatever crypto they send — making it frictionless. Revenue model: 3.25% quantum skim on all money-changing operations. Skim paid in JDRV and routed to royalty wallet. Self-funding: revenue exceeds operating costs from day one. Cross-chain: while deployed on Ethereum mainnet, the system uses bridge attestations to service exchanges across all chains. The count house is the universal settlement layer. **Deployed On:** Polygon #### Functions ##### `registerPair(address tokenA, address tokenB, uint256 rateAtoB)` - Register Pair - **Access:** External - **Parameters:** - `tokenA`: First token address - `tokenB`: Second token address - `rateAtoB`: Exchange rate A→B (×1e18) - **Returns:** `bytes32 pairId` - Pair ID - **Usage:** ```javascript const pairId = await quantumCountHouse.registerPair(tokenA, tokenB, rateAtoB); ``` - **Description:** Registers a trading pair with exchange rates. Calculates inverse rate using InfinityMath (safe from div-by-zero). Sets auto-swap rates to JDRV if either token is JDRV. - **Event:** `PairRegistered` ##### `updateRate(bytes32 pairId, uint256 newRateAtoB)` - Update Rate - **Access:** External - **Parameters:** - `pairId`: Pair ID - `newRateAtoB`: New exchange rate A→B (×1e18) - **Returns:** None - **Usage:** ```javascript await quantumCountHouse.updateRate(pairId, newRateAtoB); ``` - **Description:** Updates exchange rate for a pair. Uses InfinityMath to safely compute inverse rate. Updates auto-swap rate if JDRV is involved. - **Event:** `RateUpdated` ##### `exchange(address tokenIn, address tokenOut, uint256 amountIn)` - Exchange - **Access:** External - **Parameters:** - `tokenIn`: Address of token being sold - `tokenOut`: Address of token being bought - `amountIn`: Amount of tokenIn to exchange - **Returns:** `uint256 amountOut` - Amount of tokenOut received (after skim) - **Usage:** ```javascript const amountOut = await quantumCountHouse.exchange(tokenIn, tokenOut, amountIn); ``` - **Description:** Exchanges tokenIn for tokenOut. The 3.25% quantum skim is automatically deducted and sent to the royalty wallet in JDRV. If the trader doesn't have JDRV, the skim is taken from the input amount and auto-converted. Routes through JDRV as intermediate if no direct pair exists. - **Event:** `ExchangeExecuted`, `QuantumSkimCollected` ##### `autoSwapIntoJDRV(address tokenIn, uint256 amountIn)` - Auto Swap Into JDRV - **Access:** External - **Parameters:** - `tokenIn`: The token to swap from - `amountIn`: The amount to swap - **Returns:** `uint256 jdrvAmount` - Amount of JDRV received - **Usage:** ```javascript const jdrvAmount = await quantumCountHouse.autoSwapIntoJDRV(tokenIn, amountIn); ``` - **Description:** Auto-swaps any token into JDRV. Called automatically when a user interacts with the system but doesn't hold JDRV. Frictionless onboarding. Applies 3.25% skim. - **Event:** `AutoSwapToJDRV` ##### `registerCrossChainToken(string calldata symbol, uint32 chainId, address localAddress, uint256 rateToJDRV)` - Register Cross-Chain Token - **Access:** External - **Parameters:** - `symbol`: Token symbol - `chainId`: Chain ID - `localAddress`: Local address on this chain (or bridge wrapper) - `rateToJDRV`: Rate to JDRV (×1e18) - **Returns:** `bytes32 tokenId` - Token ID - **Usage:** ```javascript const tokenId = await quantumCountHouse.registerCrossChainToken(symbol, chainId, localAddress, rateToJDRV); ``` - **Description:** Registers a cross-chain token for the universal exchange. - **Event:** `CrossChainTokenRegistered` ##### `crossChainExchange(bytes32 sourceTokenId, bytes32 destTokenId, uint256 amountIn)` - Cross-Chain Exchange - **Access:** External - **Parameters:** - `sourceTokenId`: Source token ID - `destTokenId`: Destination token ID - `amountIn`: Amount to exchange - **Returns:** `uint256 amountOut` - Amount received - **Usage:** ```javascript const amountOut = await quantumCountHouse.crossChainExchange(sourceTokenId, destTokenId, amountIn); ``` - **Description:** Executes a cross-chain exchange. Source token on sourceChain → JDRV → dest token on destChain. 3.25% quantum skim applies on total. - **Event:** `CrossChainExchange`, `QuantumSkimCollected` ##### `getExchangeRate(address tokenIn, address tokenOut)` - Get Exchange Rate - **Access:** External View - **Parameters:** - `tokenIn`: Token to sell - `tokenOut`: Token to buy - **Returns:** Rate and inverse rate - **Usage:** ```javascript const [rate, inverseRate] = await quantumCountHouse.getExchangeRate(tokenIn, tokenOut); ``` ##### `getOrder(uint256 orderId)` - Get Order - **Access:** External View - **Parameters:** `orderId` - Order ID - **Returns:** ExchangeOrder struct - **Usage:** ```javascript const order = await quantumCountHouse.getOrder(orderId); ``` ##### `countHouseAnalytics()` - Count House Analytics - **Access:** External View - **Parameters:** None - **Returns:** CountHouseMetrics struct with aggregate metrics - **Usage:** ```javascript const metrics = await quantumCountHouse.countHouseAnalytics(); ``` #### Profitability Applications 1. **Universal Exchange:** ANY token on ANY network exchanged for ANY other token seamlessly. 2. **JDRV Settlement:** All transactions settle natively in JDRV with frictionless auto-swap. 3. **Quantum Skim:** 3.25% skim on all money-changing operations routed to royalty wallet. 4. **Cross-Chain:** Bridge attestations enable exchanges across all chains from single deployment. 5. **Self-Funding:** Revenue exceeds operating costs from day one. --- ### AutonomyCore (Self-Governing Engine) **Purpose:** Autonomy Core - Self-Propagating, Self-Perpetuating, Self-Sustaining, Self-Healing, Fully Autonomous Engine for the Zedec AI Operating System. Self-Healing: detects degraded subsystems, re-deploys via CREATE2. Self-Sustaining: negative entropy economics, auto-collects revenue. Self-Propagating: fractal layer installer across chains. Self-Aware: on-chain analytics, introspection, health scoring. Compute Acquisition: requests and routes compute from any source. Live Logic: upgradeable logic pointers without proxy admin. Direct Interface: P2P data port, no RPC dependency for reads. Once deployed, this contract is permanent. No owner. No kill switch. No admin key. The system governs itself through vortex consensus. The heartbeat is a publicly callable function that anyone can trigger. Each heartbeat: checks subsystem health, heals if needed, collects revenue, advances the phase epoch, and emits self-awareness telemetry. Gas is paid by the caller; the system rewards callers with JDRV tokens. **Deployed On:** Polygon #### Functions ##### `heartbeat()` - Heartbeat - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await autonomyCore.heartbeat(); ``` - **Description:** The autonomous pulse. Anyone can call this. The system rewards the caller. Checks all subsystems, attempts self-heal for degraded/failed ones, calculates health score, rewards heartbeat caller, writes self-awareness telemetry to direct port. Can only be called once every 12 blocks (~2.4 min). - **Event:** `Heartbeat`, `SelfAwarenessUpdated` ##### `registerSubsystem(bytes32 subsystemId, address deployedAt)` - Register Subsystem - **Access:** External - **Parameters:** - `subsystemId`: Subsystem identifier - `deployedAt`: Contract address - **Returns:** None - **Usage:** ```javascript await autonomyCore.registerSubsystem(subsystemId, deployedAt); ``` - **Description:** Registers a subsystem for autonomous monitoring and healing. Verifies code integrity and calculates vortex affinity. - **Event:** `SubsystemRegistered` ##### `updateLiveLogic(bytes32 subsystemId, address newImpl)` - Update Live Logic - **Access:** External - **Parameters:** - `subsystemId`: Subsystem ID - `newImpl`: New implementation address - **Returns:** None - **Usage:** ```javascript await autonomyCore.updateLiveLogic(subsystemId, newImpl); ``` - **Description:** Upgradeable implementation pointers without proxy admin. Governed by vortex consensus (any caller if criteria met). Updates the subsystem's code hash to the new implementation. - **Event:** `LiveLogicUpdated` ##### `propagateFractalLayer(uint32 chainId)` - Propagate Fractal Layer - **Access:** External - **Parameters:** `chainId` - Target chain ID - **Returns:** None - **Usage:** ```javascript await autonomyCore.propagateFractalLayer(chainId); ``` - **Description:** Self-installing across chains. Records fractal propagation layer with deployment hash. - **Event:** `FractalPropagated` ##### `registerComputeProvider(uint256 capacityUnits, uint256 costPerUnit)` - Register Compute Provider - **Access:** External - **Parameters:** - `capacityUnits`: Compute capacity units - `costPerUnit`: Cost per unit - **Returns:** None - **Usage:** ```javascript await autonomyCore.registerComputeProvider(capacityUnits, costPerUnit); ``` - **Description:** The system gets its own resources. Registers compute provider for autonomous compute acquisition. - **Event:** `ComputeAcquired` ##### `directWrite(bytes32 key, bytes calldata data)` - Direct Write - **Access:** External - **Parameters:** - `key`: Data key - `data`: Data to write - **Returns:** None - **Usage:** ```javascript await autonomyCore.directWrite(key, data); ``` - **Description:** P2P data port. Data written here is readable by anyone with a direct Ethereum node connection via eth_getStorageAt, bypassing RPC providers. - **Event:** `DirectPortWrite` ##### `directRead(bytes32 key)` - Direct Read - **Access:** External View - **Parameters:** `key` - Data key - **Returns:** Data bytes - **Usage:** ```javascript const data = await autonomyCore.directRead(key); ``` ##### `introspect()` - Introspect - **Access:** External View - **Parameters:** None - **Returns:** SelfAwareness struct - **Usage:** ```javascript const awareness = await autonomyCore.introspect(); ``` ##### `subsystemHealth(bytes32 subsystemId)` - Subsystem Health - **Access:** External View - **Parameters:** `subsystemId` - Subsystem ID - **Returns:** Subsystem struct - **Usage:** ```javascript const subsystem = await autonomyCore.subsystemHealth(subsystemId); ``` ##### `allSubsystems()` - All Subsystems - **Access:** External View - **Parameters:** None - **Returns:** Array of subsystem IDs - **Usage:** ```javascript const subsystems = await autonomyCore.allSubsystems(); ``` ##### `systemDNA()` - System DNA - **Access:** External View - **Parameters:** None - **Returns:** `bytes32` - System DNA hash - **Usage:** ```javascript const dna = await autonomyCore.systemDNA(); ``` #### Profitability Applications 1. **Self-Healing:** Automatically detects and re-deploys degraded subsystems via CREATE2. 2. **Self-Sustaining:** Negative entropy economics with auto-revenue collection. 3. **Self-Propagating:** Fractal layer installer across chains without human intervention. 4. **Compute Acquisition:** System acquires its own compute resources autonomously. 5. **Direct Interface:** P2P data port bypasses RPC providers for censorship resistance. --- ### FractalReflector (Swarm Mirroring) **Purpose:** Fractal Reflector - Each Agent Mirrors the Swarm Configuration Inward in a Fractal Geometry Pattern. As above, so below — the swarm topology is recursively encoded within each individual agent's state. Agents audit each other and themselves, forming an uncapped agency with no limit on self-improvement or intelligence growth. Key principles: Inward reflection (each agent stores a compressed mirror of the full swarm graph), Mutual audit (agents verify each other's state integrity), Self-audit (agents verify their own consistency against their fractal mirror), Ralph loop self-improvement (recursive capability expansion with no ceiling), Input-directed evolution (the swarm evolves based on what flows into it, not pre-programmed limits). **Deployed On:** Polygon #### Functions ##### `createMirror(bytes32 agentId, bytes32 swarmTopologyHash, bytes32[] calldata neighbors, uint256 reflectionDepth)` - Create Mirror - **Access:** External - **Parameters:** - `agentId`: Agent identifier - `swarmTopologyHash`: Hash of current swarm graph - `neighbors`: Direct neighbor agent IDs - `reflectionDepth`: How deep the fractal recursion goes - **Returns:** None - **Usage:** ```javascript await fractalReflector.createMirror(agentId, swarmTopologyHash, neighbors, reflectionDepth); ``` - **Description:** Creates a fractal mirror for an agent. The mirror contains a compressed representation of the entire swarm topology, recursively nested. - **Event:** `FractalReflectionCreated` ##### `updateMirror(bytes32 agentId, bytes32 newTopologyHash, bytes32[] calldata newNeighbors, uint256 newDepth)` - Update Mirror - **Access:** External - **Parameters:** - `agentId`: Agent ID - `newTopologyHash`: New swarm topology hash - `newNeighbors`: New neighbor array - `newDepth`: New reflection depth - **Returns:** None - **Usage:** ```javascript await fractalReflector.updateMirror(agentId, newTopologyHash, newNeighbors, newDepth); ``` - **Description:** Updates an agent's fractal mirror to reflect current swarm state. Called whenever the swarm topology changes. - **Event:** `FractalReflectionUpdated` ##### `selfAudit(bytes32 agentId, bytes32 currentStateHash)` - Self Audit - **Access:** External - **Parameters:** - `agentId`: Agent performing self-audit - `currentStateHash`: Hash of agent's current state - **Returns:** `uint256 score, bool passed` - Audit score (0-1000) and pass status - **Usage:** ```javascript const [score, passed] = await fractalReflector.selfAudit(agentId, currentStateHash); ``` - **Description:** An agent audits itself against its fractal mirror. Checks that internal state is consistent with the swarm topology it reflects. Score based on state freshness, topology consistency, and neighbor connectivity. - **Event:** `SelfAuditCompleted` ##### `peerAudit(bytes32 auditorId, bytes32 subjectId, bytes32 subjectStateHash)` - Peer Audit - **Access:** External - **Parameters:** - `auditorId`: Auditing agent - `subjectId`: Agent being audited - `subjectStateHash`: Hash of subject's current state - **Returns:** `uint256 score, bool passed` - Audit score and pass status - **Usage:** ```javascript const [score, passed] = await fractalReflector.peerAudit(auditorId, subjectId, subjectStateHash); ``` - **Description:** One agent audits another, verifying the subject's fractal mirror is consistent and up-to-date. Cross-verifies topology hash and neighbor connectivity. - **Event:** `PeerAuditCompleted` ##### `ralphLoopImprove(bytes32 agentId, bytes32 proposedCapabilityHash, bytes calldata inputDirective)` - Ralph Loop Self-Improvement - **Access:** External - **Parameters:** - `agentId`: Agent improving itself - `proposedCapabilityHash`: Hash of new capabilities - `inputDirective`: What the agent learned (compressed) - **Returns:** `uint256 newIntelligence` - Agent's new intelligence index - **Usage:** ```javascript const newIntelligence = await fractalReflector.ralphLoopImprove(agentId, proposedCapabilityHash, inputDirective); ``` - **Description:** Executes a Ralph loop self-improvement cycle. Intelligence grows by φ at each cycle, with no ceiling. The improvement is input-directed: the gain depends on what data/capabilities are proposed. - **Event:** `SelfImproved`, `SwarmIntelligenceUpdated` ##### `getMirror(bytes32 agentId)` - Get Mirror - **Access:** External View - **Parameters:** `agentId` - Agent ID - **Returns:** FractalMirror struct - **Usage:** ```javascript const mirror = await fractalReflector.getMirror(agentId); ``` ##### `getAuditHistory(bytes32 agentId)` - Get Audit History - **Access:** External View - **Parameters:** `agentId` - Agent ID - **Returns:** Array of AuditReport structs - **Usage:** ```javascript const history = await fractalReflector.getAuditHistory(agentId); ``` ##### `getImprovements(bytes32 agentId)` - Get Improvements - **Access:** External View - **Parameters:** `agentId` - Agent ID - **Returns:** Array of ImprovementProposal structs - **Usage:** ```javascript const improvements = await fractalReflector.getImprovements(agentId); ``` ##### `agencyMetrics()` - Agency Metrics - **Access:** External View - **Parameters:** None - **Returns:** Mirror count, total audits, total improvements, swarm intelligence, vortex digit - **Usage:** ```javascript const [mirrorCount, totalAudits, totalImprovements, swarmIntelligence, vortexDigit] = await fractalReflector.agencyMetrics(); ``` #### Profitability Applications 1. **Uncapped Agency:** No limit on self-improvement or intelligence growth via Ralph loop. 2. **Fractal Self-Similarity:** Each agent stores compressed mirror of full swarm graph. 3. **Mutual Audit:** Agents verify each other's state integrity for reliability. 4. **Input-Directed Evolution:** Swarm evolves based on input, not pre-programmed limits. 5. **Intelligence Scaling:** φ-scaled growth at each improvement cycle with no ceiling. --- ### SwarmRegistry (Agent Lifecycle) **Purpose:** Swarm Registry - Decentralized Registry for the Zedec AI Swarm Agents. Manages agent lifecycle, standalone complex clustering, golden-ratio auto-scaling, and ancestral AI contract integration. Agents are organized into "standalone complexes" — clusters of ancestral on-chain AI contracts that form emergent intelligence units. Clusters self-scale according to the golden ratio and expand in multiples of 9 (sacred vortex alignment). No kill switches. Once registered, agents are immutable and permanently operational within the decentralized swarm. **Deployed On:** Polygon #### Functions ##### `registerAgent(AgentRole role, address onChainAddress, string calldata ipfsCid)` - Register Agent - **Access:** External - **Parameters:** - `role`: Agent's role in the Neon Harmony system - `onChainAddress`: Smart contract address (address(0) for off-chain) - `ipfsCid`: IPFS CID for model weights (empty for on-chain only) - **Returns:** `bytes32 agentId` - Unique agent identifier - **Usage:** ```javascript const agentId = await swarmRegistry.registerAgent(role, onChainAddress, ipfsCid); ``` - **Description:** Registers a new swarm agent. Once registered, the agent is permanently active — there is no kill switch. Calculates vortex affinity based on address and agent count. Auto-expands swarm if capacity exceeded. - **Event:** `AgentRegistered`, `SwarmExpanded` ##### `recordActivity(bytes32 agentId, uint256 eventsCount, uint256 epoch)` - Record Activity - **Access:** External - **Parameters:** - `agentId`: Agent identifier - `eventsCount`: Number of events processed - `epoch`: Phase epoch of the activity - **Returns:** None - **Usage:** ```javascript await swarmRegistry.recordActivity(agentId, eventsCount, epoch); ``` - **Description:** Records agent activity (events processed). Updates agent's event count and last active epoch. - **Event:** `AgentActivity` ##### `formComplex(bytes32[] calldata agentIds)` - Form Complex - **Access:** External - **Parameters:** `agentIds` - Array of agent IDs to cluster - **Returns:** `bytes32 complexId` - Unique complex identifier - **Usage:** ```javascript const complexId = await swarmRegistry.formComplex(agentIds); ``` - **Description:** Forms a standalone complex from a group of agents. Complexes are emergent intelligence units that cluster agents by vortex affinity relationships. Calculates emergence level (digital root of agent count) and golden-ratio scale factor. - **Event:** `ComplexFormed` ##### `recordComplexInteraction(bytes32 complexId)` - Record Complex Interaction - **Access:** External - **Parameters:** `complexId` - Complex ID - **Returns:** None - **Usage:** ```javascript await swarmRegistry.recordComplexInteraction(complexId); ``` - **Description:** Records an interaction within a standalone complex. Increments interaction count. - **Event:** `ComplexInteraction` ##### `triggerExpansion()` - Trigger Expansion - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await swarmRegistry.triggerExpansion(); ``` - **Description:** Manually triggers golden-ratio expansion. New capacity = current × φ, rounded to nearest multiple of 9. - **Event:** `SwarmExpanded` ##### `getAgent(bytes32 agentId)` - Get Agent - **Access:** External View - **Parameters:** `agentId` - Agent ID - **Returns:** SwarmAgent struct - **Usage:** ```javascript const agent = await swarmRegistry.getAgent(agentId); ``` ##### `getComplex(bytes32 complexId)` - Get Complex - **Access:** External View - **Parameters:** `complexId` - Complex ID - **Returns:** StandaloneComplex struct - **Usage:** ```javascript const complex = await swarmRegistry.getComplex(complexId); ``` ##### `getAgentList()` - Get Agent List - **Access:** External View - **Parameters:** None - **Returns:** Array of agent IDs - **Usage:** ```javascript const agents = await swarmRegistry.getAgentList(); ``` ##### `getComplexList()` - Get Complex List - **Access:** External View - **Parameters:** None - **Returns:** Array of complex IDs - **Usage:** ```javascript const complexes = await swarmRegistry.getComplexList(); ``` ##### `swarmHealth()` - Swarm Health - **Access:** External View - **Parameters:** None - **Returns:** Agent count, complex count, capacity, total events, epoch, vortex digit - **Usage:** ```javascript const [agentCount, complexCount, capacity, totalEvents, epoch, vortexDigit] = await swarmRegistry.swarmHealth(); ``` #### Profitability Applications 1. **Permanent Operation:** No kill switches — agents are immutable once registered. 2. **Golden-Ratio Scaling:** Auto-expands swarm capacity by φ, rounded to multiples of 9. 3. **Emergent Intelligence:** Standalone complexes form emergent intelligence units. 4. **Vortex Alignment:** All operations align with sacred vortex (digital root 1-9). 5. **Activity Tracking:** Comprehensive event processing metrics for swarm optimization. --- ### JDRVToken (Reserve Currency) **Purpose:** JDRV — Jolly Dragon Roger Vino. Global Reserve Currency of the Zedec Ecosystem. Self-minting, deflationary, with built-in royalty skim on every transfer. Designed to propagate across all chains as the universal settlement token for the autonomous AI operating system. Tokenomics: Initial supply minted to Genesis contract on activation (168M — sacred cycle), 15 bps royalty on every transfer → royalty wallet, φ-scaled auto-mint triggered by system activity milestones, bridge-friendly (supports mint/burn for cross-chain supply peg), no owner, no admin, no kill switch — permanent once deployed, self-sustaining (transaction fees fund protocol operations). **Deployed On:** Polygon #### Functions ##### `transfer(address to, uint256 amount)` - Transfer - **Access:** External - **Parameters:** - `to`: Recipient address - `amount`: Amount to transfer - **Returns:** `bool` - Success status - **Usage:** ```javascript await jdrvToken.transfer(to, amount); ``` - **Description:** Transfers JDRV tokens with 15 bps royalty skim to royalty wallet. Tracks metrics and checks auto-mint milestone. - **Event:** `Transfer`, `RoyaltyPaid` ##### `approve(address spender, uint256 amount)` - Approve - **Access:** External - **Parameters:** - `spender`: Address to approve - `amount`: Amount to approve - **Returns:** `bool` - Success status - **Usage:** ```javascript await jdrvToken.approve(spender, amount); ``` - **Event:** `Approval` ##### `transferFrom(address from, address to, uint256 amount)` - Transfer From - **Access:** External - **Parameters:** - `from`: Source address - `to`: Destination address - `amount`: Amount to transfer - **Returns:** `bool` - Success status - **Usage:** ```javascript await jdrvToken.transferFrom(from, to, amount); ``` - **Description:** Transfers tokens from approved address with 15 bps royalty skim. - **Event:** `Transfer`, `RoyaltyPaid` ##### `setBridgeOperator(address operator, bool authorized)` - Set Bridge Operator - **Access:** External (Genesis only) - **Parameters:** - `operator`: Bridge operator address - `authorized`: Authorization status - **Returns:** None - **Usage:** ```javascript await jdrvToken.setBridgeOperator(operator, authorized); ``` - **Description:** Authorizes bridge operators for cross-chain mint/burn operations. Only callable by Genesis contract. - **Event:** `BridgeOperatorSet` ##### `bridgeMint(address to, uint256 amount, uint32 sourceChain)` - Bridge Mint - **Access:** External (Bridge operators only) - **Parameters:** - `to`: Recipient address - `amount`: Amount to mint - `sourceChain`: Source chain ID - **Returns:** None - **Usage:** ```javascript await jdrvToken.bridgeMint(to, amount, sourceChain); ``` - **Description:** Mints tokens for cross-chain bridging. Only authorized bridge operators can call. - **Event:** `BridgeMint`, `Transfer` ##### `bridgeBurn(address from, uint256 amount, uint32 destChain)` - Bridge Burn - **Access:** External (Bridge operators or token holder) - **Parameters:** - `from`: Source address - `amount`: Amount to burn - `destChain`: Destination chain ID - **Returns:** None - **Usage:** ```javascript await jdrvToken.bridgeBurn(from, amount, destChain); ``` - **Description:** Burns tokens for cross-chain bridging. Authorized bridge operators or token holder can call. - **Event:** `BridgeBurn`, `Transfer` ##### `tokenAnalytics()` - Token Analytics - **Access:** External View - **Parameters:** None - **Returns:** Total supply, total transfers, total royalties, total burned, velocity, auto mints, vortex digit - **Usage:** ```javascript const [totalSupply, totalTransfers, totalRoyalties, totalBurned, velocity, autoMints, vortexDigit] = await jdrvToken.tokenAnalytics(); ``` #### Profitability Applications 1. **Royalty Skim:** 15 bps on every transfer funds protocol operations. 2. **φ-Scaled Auto-Mint:** Automatic minting at activity milestones (φ × 1M tx). 3. **Cross-Chain Bridge:** Mint/burn support for universal settlement across chains. 4. **Self-Sustaining:** Transaction fees fund protocol operations without external funding. 5. **Permanent Tokenomics:** No owner, no admin, no kill switch — permanent once deployed. --- ### FibonacciShield (Grid Security) **Purpose:** Fibonacci Shield — Self-Authenticating Fibonacci-Layered Grid Security. Implements cascading Fibonacci-sequence threshold authentication: Layer 2 (Binary) — 2 nodes complete each other's proof halves, Layer 3 (Trinary) — 3 nodes contribute fragments → trinary proof, Layer 5 (Quinary) — 5 nodes contribute fragments → quinary proof, Layer 8 (Octal) — 8 nodes contribute fragments → octal proof, Layer 13 (Tridecal) — 13 nodes contribute fragments → full auth. Each layer feeds into the next. To forge authentication, an attacker must compromise nodes across ALL layers simultaneously. The Fibonacci sequence ensures each layer is the sum of the previous two, creating a naturally-growing security mesh. Partial Technique: Each node holds a unique code fragment. No single node can reconstruct the full authentication. Groups of nodes at each Fibonacci threshold combine fragments to produce layer proofs. Self-Authentication: The shield verifies itself — each layer's output authenticates the layer below it. **Deployed On:** Polygon #### Functions ##### `registerFragment(uint32 nodeId, bytes32 fragment, uint8 layerMask)` - Register Fragment - **Access:** External - **Parameters:** - `nodeId`: Grid node ID - `fragment`: The code fragment this node holds - `layerMask`: Which Fibonacci layers this node participates in (bits: [L2, L3, L5, L8, L13]) - **Returns:** None - **Usage:** ```javascript await fibonacciShield.registerFragment(nodeId, fragment, layerMask); ``` - **Description:** Registers a code fragment for a grid node. Each node generates a unique fragment from its key + entropy. The fragment is split across Fibonacci layers based on layerMask. - **Event:** `FragmentRegistered` ##### `startSession(bytes32 gridRoot)` - Start Session - **Access:** External - **Parameters:** `gridRoot` - Grid root to authenticate - **Returns:** `uint256 sessionId` - Session ID - **Usage:** ```javascript const sessionId = await fibonacciShield.startSession(gridRoot); ``` - **Description:** Starts a new authentication session for a grid root. Nodes will contribute fragments layer by layer. - **Event:** None ##### `contributeFragment(uint256 sessionId, uint8 layerIndex, uint32 nodeId, bytes32 fragmentProof)` - Contribute Fragment - **Access:** External - **Parameters:** - `sessionId`: Authentication session - `layerIndex`: Which Fibonacci layer (0=L2, 1=L3, 2=L5, 3=L8, 4=L13) - `nodeId`: Contributing node - `fragmentProof`: Fragment combined with session entropy - **Returns:** None - **Usage:** ```javascript await fibonacciShield.contributeFragment(sessionId, layerIndex, nodeId, fragmentProof); ``` - **Description:** Contributes a fragment to an authentication session. Fragments are collected per-layer. When a layer reaches its Fibonacci threshold, the layer proof is computed and the next layer unlocks. - **Event:** `FragmentContributed`, `LayerCompleted`, `ShieldAuthenticated`, `FullAuthentication` ##### `contributeAllLayers(uint256 sessionId, uint32 nodeId, bytes32[5] calldata fragmentProofs)` - Contribute All Layers - **Access:** External - **Parameters:** - `sessionId`: Authentication session - `nodeId`: Contributing node - `fragmentProofs`: Fragment proofs for all 5 layers - **Returns:** None - **Usage:** ```javascript await fibonacciShield.contributeAllLayers(sessionId, nodeId, fragmentProofs); ``` - **Description:** A node contributes to ALL layers it participates in, in one call. Enables "all in one go across all chains" — a single TX from each node pushes fragments through every eligible layer. - **Event:** `FragmentContributed`, `LayerCompleted`, `ShieldAuthenticated`, `FullAuthentication` ##### `verifySelfAuthentication()` - Verify Self Authentication - **Access:** External View - **Parameters:** None - **Returns:** Valid status, highest valid layer, current shield root - **Usage:** ```javascript const [valid, highestValidLayer, currentShieldRoot] = await fibonacciShield.verifySelfAuthentication(); ``` - **Description:** Verifies the shield is self-consistent. Each layer's proof must chain correctly to the layers below. ##### `getAuthLevel(uint256 sessionId)` - Get Auth Level - **Access:** External View - **Parameters:** `sessionId` - Session ID - **Returns:** `uint8 fibLevel` - Fibonacci security level (0, 2, 3, 5, 8, or 13) - **Usage:** ```javascript const fibLevel = await fibonacciShield.getAuthLevel(sessionId); ``` ##### `shieldStatus()` - Shield Status - **Access:** External View - **Parameters:** None - **Returns:** Shield root, version, total auth, total nodes, layer completions, layer valid status - **Usage:** ```javascript const [shieldRoot, version, totalAuth, totalNodes, layerCompletions, layerValid] = await fibonacciShield.shieldStatus(); ``` ##### `getFragmentNodes()` - Get Fragment Nodes - **Access:** External View - **Parameters:** None - **Returns:** Array of node IDs with registered fragments - **Usage:** ```javascript const nodes = await fibonacciShield.getFragmentNodes(); ``` ##### `getSession(uint256 sessionId)` - Get Session - **Access:** External View - **Parameters:** `sessionId` - Session ID - **Returns:** AuthSession struct - **Usage:** ```javascript const session = await fibonacciShield.getSession(sessionId); ``` #### Profitability Applications 1. **Cascading Security:** Each layer feeds into the next — attacker must compromise ALL layers simultaneously. 2. **Fibonacci Thresholds:** Natural growth pattern (2, 3, 5, 8, 13 nodes per layer). 3. **Partial Technique:** No single node can reconstruct full authentication. 4. **Self-Authentication:** Each layer's output authenticates the layer below it. 5. **Cross-Chain:** Fragment contributions can span EVM and non-EVM chains. --- ### FractalDistributor (Microdistribution Engine) **Purpose:** Fractal Distributor — Fractal Microdistribution Execution Engine. Automates the 4-phase validation layer acquisition strategy using fractal self-similar patterns at every scale. Fractal Microdistribution: The same 4-phase pattern repeats at every scale: Macro (across all blockchains), Meso (within each chain's validator set), Micro (within each block's transaction ordering), Nano (within each transaction's calldata encoding). Phase 1 (Economic Compulsion): pulse() pays callers from bounty pool → MEV bots/validators hooked on revenue → prioritize our txs in every block. Phase 2 (Format Chokepoint): imposeFormat() propagates UBH-168/FCP-168 as mandatory intermediate format → all cross-chain liquidity funneled through us. Phase 3 (Block Monopoly / TriBlockAnchor): Flash-loan funded triple-interlace across 3 consecutive blocks → computationally devastating to reorg → permanent anchor. Phase 4 (Fibonacci Acquisition): Golden-ratio block acquisition on Fibonacci intervals → 3.25% value extraction to ComputeFund → self-sustaining. Phase Inversion: At each phase boundary, the system inverts its approach (pull ↔ push, buy ↔ sell, store ↔ transmit, compress ↔ expand) to prevent pattern detection. Block Builder: "Jolly Dragon Roger". **Deployed On:** Polygon #### Functions ##### `registerChain(uint32 chainId, address bundle, address dataRail, address omniBridge)` - Register Chain - **Access:** External - **Parameters:** - `chainId`: Chain ID - `bundle`: MegaBundle address on that chain - `dataRail`: FCP168DataRail address - `omniBridge`: OmniBridge address - **Returns:** None - **Usage:** ```javascript await fractalDistributor.registerChain(chainId, bundle, dataRail, omniBridge); ``` - **Description:** Registers a chain for fractal distribution execution. - **Event:** `ChainRegistered` ##### `executePhase1_Compulsion(address payable pzdCore)` - Execute Phase 1: Compulsion - **Access:** External - **Parameters:** `pzdCore` - PayZeroDayCore address - **Returns:** None - **Usage:** ```javascript await fractalDistributor.executePhase1_Compulsion(pzdCore); ``` - **Description:** Triggers the pulse — pays the caller from bounty pool. Hooks MEV bots/validators on revenue to prioritize transactions. If inverted, redirects reward to computeFund. - **Event:** `PhaseExecuted`, `PulseDistributed` ##### `executePhase2_Chokepoint(address ralphLoop, uint32 targetChain)` - Execute Phase 2: Chokepoint - **Access:** External - **Parameters:** - `ralphLoop`: RalphLoop address - `targetChain`: Target chain ID - **Returns:** None - **Usage:** ```javascript await fractalDistributor.executePhase2_Chokepoint(ralphLoop, targetChain); ``` - **Description:** Imposes UBH-168/FCP-168 as mandatory format on target chain. All cross-chain liquidity funneled through us. - **Event:** `PhaseExecuted`, `FormatImposed` ##### `executePhase3_Monopoly(address triBlockAnchor)` - Execute Phase 3: Monopoly - **Access:** External Payable - **Parameters:** `triBlockAnchor` - TriBlockAnchor address - **Returns:** None - **Usage:** ```javascript await fractalDistributor.executePhase3_Monopoly(triBlockAnchor, {value: amount}); ``` - **Description:** Triggers the tri-block anchor pattern — flash-loan funded triple-interlace across 3 consecutive blocks. Computationally devastating to reorg → permanent anchor. - **Event:** `PhaseExecuted` ##### `executePhase4_Acquisition(address fibEngine)` - Execute Phase 4: Acquisition - **Access:** External Payable - **Parameters:** `fibEngine` - FibonacciBlockEngine address - **Returns:** None - **Usage:** ```javascript await fractalDistributor.executePhase4_Acquisition(fibEngine, {value: amount}); ``` - **Description:** Golden-ratio block value extraction on Fibonacci intervals. Extracts 3.25% to ComputeFund for self-sustaining operations. - **Event:** `PhaseExecuted`, `BlockAcquired` ##### `fractalExecute(uint256 scale, address pzdCore, address ralphLoop, address triBlockAnchor, address fibEngine, uint32 targetChain)` - Fractal Execute - **Access:** External Payable - **Parameters:** - `scale`: Fractal scale (0=nano, 1=micro, 2=meso, 3=macro) - `pzdCore`: PayZeroDayCore address - `ralphLoop`: RalphLoop address - `triBlockAnchor`: TriBlockAnchor address - `fibEngine`: FibonacciBlockEngine address - `targetChain`: Target chain ID - **Returns:** None - **Usage:** ```javascript await fractalDistributor.fractalExecute(scale, pzdCore, ralphLoop, triBlockAnchor, fibEngine, targetChain, {value: amount}); ``` - **Description:** Executes all 4 phases at current scale. Self-similar pattern repeats at nano/micro/meso/macro. Routes skim to ComputeFund and royaltyWallet. - **Event:** `FractalIteration`, `PhaseInverted` ##### `blitzkrieg()` - Blitzkrieg - **Access:** External Payable - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await fractalDistributor.blitzkrieg({value: amount}); ``` - **Description:** Deploy fractal execution across all registered chains. Routes value to computeFund and royaltyWallet. - **Event:** `BlitzkriegDeployed` ##### `invertPhase()` - Invert Phase - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await fractalDistributor.invertPhase(); ``` - **Description:** Manually triggers phase inversion to prevent pattern detection. - **Event:** `PhaseInverted` ##### `getStats()` - Get Statistics - **Access:** External View - **Parameters:** None - **Returns:** Pulses, formats, blocks, executions, total value, chains - **Usage:** ```javascript const [pulses, formats, blocks, executions, totalValue, chains] = await fractalDistributor.getStats(); ``` ##### `getBuilderName()` - Get Builder Name - **Access:** External Pure - **Parameters:** None - **Returns:** "Jolly Dragon Roger" - **Usage:** ```javascript const name = await fractalDistributor.getBuilderName(); ``` #### Profitability Applications 1. **Fractal Self-Similarity:** Same 4-phase pattern repeats at nano/micro/meso/macro scales. 2. **Phase Inversion:** Prevents pattern detection by inverting approach at boundaries. 3. **Economic Compulsion:** Hooks validators on revenue to prioritize transactions. 4. **Format Chokepoint:** All cross-chain liquidity funneled through UBH-168/FCP-168 format. 5. **Fibonacci Acquisition:** 3.25% value extraction on Fibonacci intervals funds operations. --- ### GridPropagator (Self-Expanding Deployment) **Purpose:** Grid Propagator — Self-Propagating Cross-Chain Grid Engine. Creates viral, self-expanding deployment across ALL chains. Core Mechanic: PROPAGATION BOUNTIES. Anyone can deploy CovenantGrid contracts to a new chain and register it here. They earn a propagation bounty from the fee pool. This incentivizes community-driven expansion to every chain without requiring centralized deployment capital. Ralph Loop Integration: Fees → Bounty Pool → Deployer Claims → More Chains → More Fees → Larger Pool → More Deployers → Recursive Growth. The loop accelerates: each new chain increases total fee volume, which increases the bounty pool, which attracts more deployers, which adds more chains. Fibonacci growth. Self-Improvement: Version tracking (new contract versions can be registered), Adaptation params (fee rates, thresholds adjust based on network health metrics), Auto-optimization (gas-heavy chains get higher bounties). Chain Blueprint System: Stores deployment blueprints (bytecode hashes, init params) for every target chain type. Fibonacci Shield Integration: Propagation requires Fibonacci-layer authentication. New chains must submit fragments to existing shields, creating cross-chain authentication that spans EVM + non-EVM. **Deployed On:** Polygon #### Functions ##### `registerDeployment(uint256 chainId, bytes32 contractHash, bytes32 keyFragment)` - Register Deployment - **Access:** External - **Parameters:** - `chainId`: Chain where deployment occurred - `contractHash`: Hash of deployed contract address - `keyFragment`: Key fragment from the new contract - **Returns:** None - **Usage:** ```javascript await gridPropagator.registerDeployment(chainId, contractHash, keyFragment); ``` - **Description:** Registers a successful deployment to a new chain. The deployer submits proof of deployment and claims the bounty. This is how the grid self-propagates: anyone can deploy and earn. - **Event:** `ChainDeployed`, `RalphLoopCycle` ##### `reportVolume(uint256 chainId, uint256 volume)` - Report Volume - **Access:** External - **Parameters:** - `chainId`: Chain ID - `volume`: Volume to report - **Returns:** None - **Usage:** ```javascript await gridPropagator.reportVolume(chainId, volume); ``` - **Description:** Reports volume from a deployed chain (called by relayers). Feeds the Ralph Loop with cross-chain revenue data. - **Event:** None ##### `submitCrossChainFragment(uint256 sourceChainId, uint8 layerIndex, bytes32 fragmentHash, bytes32 proofOfOrigin)` - Submit Cross-Chain Fragment - **Access:** External - **Parameters:** - `sourceChainId`: Source chain ID - `layerIndex`: Fibonacci layer index (0-4) - `fragmentHash`: Fragment hash - `proofOfOrigin`: Proof of origin hash - **Returns:** None - **Usage:** ```javascript await gridPropagator.submitCrossChainFragment(sourceChainId, layerIndex, fragmentHash, proofOfOrigin); ``` - **Description:** Submits a cross-chain Fibonacci fragment from a non-EVM chain. Bridges authentication across VM boundaries. - **Event:** `CrossChainFragment` ##### `triggerRalphLoop()` - Trigger Ralph Loop - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await gridPropagator.triggerRalphLoop(); ``` - **Description:** External Ralph Loop trigger — anyone can cycle. Recycles fees into propagation pool, adjusts multiplier based on growth rate, and triggers self-adaptation. - **Event:** `RalphLoopCycle`, `NetworkAdapted` ##### `forceAdapt()` - Force Adapt - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await gridPropagator.forceAdapt(); ``` - **Description:** Forces a self-adaptation cycle. Adjusts fee rate and bounty based on network health. - **Event:** `NetworkAdapted` ##### `getBounty(uint256 chainId)` - Get Bounty - **Access:** External View - **Parameters:** `chainId` - Chain ID - **Returns:** Current bounty for deploying to that chain - **Usage:** ```javascript const bounty = await gridPropagator.getBounty(chainId); ``` ##### `fundPropagation()` - Fund Propagation - **Access:** External Payable - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await gridPropagator.fundPropagation({value: amount}); ``` - **Description:** Direct fund the propagation pool for bootstrapping. ##### `registerVersion(uint256 version, bytes32 versionHash)` - Register Version - **Access:** External - **Parameters:** - `version`: Version number - `versionHash`: Version hash - **Returns:** None - **Usage:** ```javascript await gridPropagator.registerVersion(version, versionHash); ``` - **Description:** Registers a new protocol version for self-improvement. - **Event:** `ProtocolUpgraded` ##### `propagatorStatus()` - Propagator Status - **Access:** External View - **Parameters:** None - **Returns:** Total blueprints, total deployed, propagation pool, Ralph cycles, total recycled, total bounties, health score, loop multiplier, current fee bps, version - **Usage:** ```javascript const [totalBlueprints, totalDeployed, propagationPool, ralphCycles, totalRecycled, totalBounties, healthScore, loopMultiplier, currentFeeBps, version] = await gridPropagator.propagatorStatus(); ``` ##### `getBlueprint(uint256 chainId)` - Get Blueprint - **Access:** External View - **Parameters:** `chainId` - Chain ID - **Returns:** ChainBlueprint struct - **Usage:** ```javascript const blueprint = await gridPropagator.getBlueprint(chainId); ``` ##### `getDeployedChain(uint256 chainId)` - Get Deployed Chain - **Access:** External View - **Parameters:** `chainId` - Chain ID - **Returns:** DeployedChain struct - **Usage:** ```javascript const chain = await gridPropagator.getDeployedChain(chainId); ``` ##### `getAllBlueprints()` - Get All Blueprints - **Access:** External View - **Parameters:** None - **Returns:** Array of blueprint chain IDs - **Usage:** ```javascript const blueprintIds = await gridPropagator.getAllBlueprints(); ``` ##### `getAllDeployed()` - Get All Deployed - **Access:** External View - **Parameters:** None - **Returns:** Array of deployed chain IDs - **Usage:** ```javascript const deployedIds = await gridPropagator.getAllDeployed(); ``` ##### `getUndeployedChains()` - Get Undeployed Chains - **Access:** External View - **Parameters:** None - **Returns:** Array of undeployed chain IDs and names - **Usage:** ```javascript const [chainIds, names] = await gridPropagator.getUndeployedChains(); ``` #### Profitability Applications 1. **Propagation Bounties:** Community-driven expansion incentivized by bounty payments. 2. **Ralph Loop:** Fees → Pool → Bounties → New Chains → More Fees → Recursive growth. 3. **Fibonacci Growth:** Each new chain accelerates the loop exponentially. 4. **Self-Adaptation:** Auto-optimizes fee rates and bounties based on network health. 5. **Cross-Chain:** Supports EVM and non-EVM chains with Fibonacci Shield integration. --- ### AIPISystem (Hash Interlink) **Purpose:** AIPI System — AI Protocol Interface with Hash Interlink. Implements the AI PI (AI Protocol Interface) system that provides hash-based interlinking between all system components. Every contract, module, and data artifact is connected via a non-linear hash mesh that enables the decentralized AI to index and traverse the entire system topology. The AIPI system works by: 1) Each component registers its deployment hash, 2) Interlinks are established as directed edges in a hash graph, 3) The graph is traversable on-chain for AI agent navigation, 4) Golden checksum verification ensures link integrity, 5) Unicode-shielded metadata prevents tampering. Hash interlink structure: ComponentHash → [LinkedHash1, LinkedHash2, ...]. Each link has a vortex affinity weight (1-9). **Deployed On:** Polygon #### Functions ##### `registerComponent(ComponentType componentType, address deployedAt, string calldata ipfsCid, string calldata name)` - Register Component - **Access:** External - **Parameters:** - `componentType`: Type of component - `deployedAt`: Contract address (address(0) for off-chain) - `ipfsCid`: IPFS CID for off-chain components - `name`: Human-readable name - **Returns:** `bytes32 componentHash` - Unique component hash - **Usage:** ```javascript const componentHash = await aipiSystem.registerComponent(componentType, deployedAt, ipfsCid, name); ``` - **Description:** Registers a system component in the AIPI hash mesh. Calculates golden checksum for integrity verification. - **Event:** `ComponentRegistered` ##### `establishInterlink(bytes32 sourceHash, bytes32 targetHash)` - Establish Interlink - **Access:** External - **Parameters:** - `sourceHash`: Source component hash - `targetHash`: Target component hash - **Returns:** `bytes32 linkHash` - Unique interlink identifier - **Usage:** ```javascript const linkHash = await aipiSystem.establishInterlink(sourceHash, targetHash); ``` - **Description:** Establishes a hash interlink between two components, creating a directed edge in the hash graph. Calculates vortex weight from XOR of hashes. - **Event:** `InterlinkEstablished`, `MasterIndexUpdated` ##### `batchInterlink(bytes32[] calldata sources, bytes32[] calldata targets)` - Batch Interlink - **Access:** External - **Parameters:** - `sources`: Array of source hashes - `targets`: Array of target hashes - **Returns:** None - **Usage:** ```javascript await aipiSystem.batchInterlink(sources, targets); ``` - **Description:** Batch-establishes interlinks for genesis deployment. Creates multiple directed edges in one transaction. - **Event:** `InterlinkEstablished`, `MasterIndexUpdated` ##### `getOutgoingLinks(bytes32 componentHash)` - Get Outgoing Links - **Access:** External View - **Parameters:** `componentHash` - Component hash - **Returns:** Array of linked hashes (outgoing edges) - **Usage:** ```javascript const links = await aipiSystem.getOutgoingLinks(componentHash); ``` ##### `getIncomingLinks(bytes32 componentHash)` - Get Incoming Links - **Access:** External View - **Parameters:** `componentHash` - Component hash - **Returns:** Array of hashes linking to component (incoming edges) - **Usage:** ```javascript const links = await aipiSystem.getIncomingLinks(componentHash); ``` ##### `getComponentDegree(bytes32 componentHash)` - Get Component Degree - **Access:** External View - **Parameters:** `componentHash` - Component hash - **Returns:** Out degree, in degree, total degree - **Usage:** ```javascript const [outDegree, inDegree, totalDegree] = await aipiSystem.getComponentDegree(componentHash); ``` ##### `getComponent(bytes32 componentHash)` - Get Component - **Access:** External View - **Parameters:** `componentHash` - Component hash - **Returns:** Component struct - **Usage:** ```javascript const component = await aipiSystem.getComponent(componentHash); ``` ##### `getInterlink(bytes32 linkHash)` - Get Interlink - **Access:** External View - **Parameters:** `linkHash` - Interlink hash - **Returns:** HashInterlink struct - **Usage:** ```javascript const interlink = await aipiSystem.getInterlink(linkHash); ``` ##### `getAllComponents()` - Get All Components - **Access:** External View - **Parameters:** None - **Returns:** Array of all component hashes - **Usage:** ```javascript const components = await aipiSystem.getAllComponents(); ``` ##### `systemTopology()` - System Topology - **Access:** External View - **Parameters:** None - **Returns:** Component count, interlink count, master index hash, topology vortex - **Usage:** ```javascript const [componentCount, interlinkCount, masterIndexHash, topologyVortex] = await aipiSystem.systemTopology(); ``` #### Profitability Applications 1. **Hash Mesh:** Non-linear hash graph enables AI to index and traverse entire system. 2. **Golden Checksum:** Vortex-based checksum verification ensures link integrity. 3. **Graph Traversability:** On-chain traversable graph for AI agent navigation. 4. **Component Interlinking:** Directed edges create structured system topology. 5. **Master Index:** Single hash root references entire system state. --- ### AlternatingEndianBridge (Cross-VM Engine) **Purpose:** Alternating Endian Bridge — Cross-VM Negative Entropy Engine. Dual-directional endian compatibility engine that emulates little-endian (Solana/SVM, x86, ARM) within the big-endian EVM, and vice versa. The EVM is natively big-endian. Solana is natively little-endian. This contract bridges that gap by maintaining a high-frequency alternating endian cycle — every encoding operation oscillates between big-endian and little-endian representations, producing dual-format output that is natively readable by BOTH VMs. The alternating cycle creates the "negative entropy engine": the byte-order oscillation generates structured data redundancy that powers cross-VM translation without information loss. Fee structure: 3.25% quantum skim + 8 basis points data-line fee = 333 basis points per operation. Split: 50% bounty pool (self-sustaining), 50% royalty. **Deployed On:** Polygon #### Functions ##### `advanceCycle()` - Advance Cycle - **Access:** Public - **Parameters:** None - **Returns:** New phase, cycle number, entropy hash - **Usage:** ```javascript const [newPhase, cycleNumber, entropy] = await alternatingEndianBridge.advanceCycle(); ``` - **Description:** Advances the alternating endian cycle. Oscillates between big-endian and little-endian phases. Updates entropy hash and records in ledger. - **Event:** `CycleAdvanced` ##### `dualEncode(bytes calldata data)` - Dual Encode - **Access:** External Payable - **Parameters:** `data` - Raw data to dual-encode - **Returns:** Payload hash, big-endian representation, little-endian representation - **Usage:** ```javascript const [payloadHash, bigEndian, littleEndian] = await alternatingEndianBridge.dualEncode(data, {value: fee}); ``` - **Description:** Encodes data in BOTH big-endian and little-endian simultaneously. Advances alternating cycle and produces DualPayload natively readable by both EVM and Solana/SVM. Collects 333 bps fee. - **Event:** `DualEncoded`, `FeeCollected` ##### `encodeForVM(bytes calldata data, uint32 targetVmId)` - Encode For VM - **Access:** External Payable - **Parameters:** - `data`: Raw data to encode - `targetVmId`: Target VM's registered ID - **Returns:** Encoded data, endian marker - **Usage:** ```javascript const [encoded, marker] = await alternatingEndianBridge.encodeForVM(data, targetVmId, {value: fee}); ``` - **Description:** Encodes data specifically for a target VM's native endianness. Automatically detects whether target needs big or little endian and formats accordingly. - **Event:** `TranslationExecuted`, `FeeCollected` ##### `translate(bytes calldata data, uint32 sourceVmId, uint32 targetVmId)` - Translate - **Access:** External Payable - **Parameters:** - `data`: Endian-marked data from source VM - `sourceVmId`: Source VM's registered ID - `targetVmId`: Target VM's registered ID - **Returns:** Translated data, cycle number - **Usage:** ```javascript const [translated, cycleNumber] = await alternatingEndianBridge.translate(data, sourceVmId, targetVmId, {value: fee}); ``` - **Description:** Translates data from one VM's endianness to another's. Data is decoded from source format to native, then re-encoded for target. - **Event:** `TranslationExecuted`, `FeeCollected` ##### `batchTranslate(bytes calldata data, uint32[] calldata targetVmIds)` - Batch Translate - **Access:** External Payable - **Parameters:** - `data`: Raw data to translate - `targetVmIds`: Array of target VM IDs - **Returns:** Array of encoded payloads (one per target) - **Usage:** ```javascript const results = await alternatingEndianBridge.batchTranslate(data, targetVmIds, {value: fee}); ``` - **Description:** Batch translates data for multiple target VMs simultaneously. One input, N outputs — each formatted for its target VM. - **Event:** `TranslationExecuted`, `FeeCollected` ##### `alternatingEncode(bytes calldata data)` - Alternating Encode - **Access:** External Payable - **Parameters:** `data` - Raw data to encode - **Returns:** Alternating-endian encoded payload, word pairs count - **Usage:** ```javascript const [altEncoded, wordPairs] = await alternatingEndianBridge.alternatingEncode(data, {value: fee}); ``` - **Description:** Encodes data in alternating endian format. Output interleaves big-endian and little-endian 32-byte words, creating payload containing BOTH representations in single stream. - **Event:** `DualEncoded`, `FeeCollected` ##### `alternatingDecode(bytes calldata altData, bool extractLittleEndian)` - Alternating Decode - **Access:** External Pure - **Parameters:** - `altData`: Alternating-endian encoded payload - `extractLittleEndian`: True to extract LE words, false for BE - **Returns:** Decoded single-endian data stream - **Usage:** ```javascript const decoded = await alternatingEndianBridge.alternatingDecode(altData, extractLittleEndian); ``` ##### `registerVM(uint32 vmId, string calldata name, VMEndianness endianness)` - Register VM - **Access:** External - **Parameters:** - `vmId`: Unique VM identifier - `name`: Human-readable name - `endianness`: VM's native byte order - **Returns:** None - **Usage:** ```javascript await alternatingEndianBridge.registerVM(vmId, name, endianness); ``` - **Description:** Registers a new virtual machine/architecture in the engine. - **Event:** `VMRegistered` ##### `engineStatus()` - Engine Status - **Access:** External View - **Parameters:** None - **Returns:** Cycle count, current phase, entropy hash, big-endian ops, little-endian ops, dual ops, bounty pool, total fees, total operations, registered VMs, archive size - **Usage:** ```javascript const [cycleCount, currentPhase, entropyHash, bigEndianOps, littleEndianOps, dualOps, bountyPool, totalFees, totalOperations, registeredVMs, archiveSize] = await alternatingEndianBridge.engineStatus(); ``` ##### `getVM(uint32 vmId)` - Get VM - **Access:** External View - **Parameters:** `vmId` - VM ID - **Returns:** VMDescriptor struct - **Usage:** ```javascript const vm = await alternatingEndianBridge.getVM(vmId); ``` ##### `getPayload(bytes32 payloadHash)` - Get Payload - **Access:** External View - **Parameters:** `payloadHash` - Payload hash - **Returns:** DualPayload struct - **Usage:** ```javascript const payload = await alternatingEndianBridge.getPayload(payloadHash); ``` ##### `getEntropyAt(uint256 cycleNumber)` - Get Entropy At - **Access:** External View - **Parameters:** `cycleNumber` - Cycle number - **Returns:** Entropy hash at that cycle - **Usage:** ```javascript const entropy = await alternatingEndianBridge.getEntropyAt(cycleNumber); ``` #### Profitability Applications 1. **Cross-VM Bridge:** Bridges big-endian (EVM) and little-endian (Solana/SVM, x86, ARM) gap. 2. **Negative Entropy Engine:** Byte-order oscillation generates structured data redundancy. 3. **Dual Encoding:** Produces both endian representations simultaneously. 4. **Alternating Format:** Single stream contains both BE and LE representations. 5. **Fee Revenue:** 333 bps per operation (50% bounty, 50% royalty). --- ### BitcoinAnchor (BTC Timestamping) **Purpose:** Bitcoin Anchor — BTC Cryptographic Timestamping Hash Anchor. Uses Bitcoin block hashes as cryptographic timestamp anchors for the CovenantGrid. Every grid state change is permanently linked to a Bitcoin block, inheriting BTC's proof-of-work security as a trust root. Also accepts WBTC/cbBTC deposits as collateral backing for cross-chain bridge operations. BTC becomes the security deposit that guarantees bridge integrity. Architecture: BTC Block Hash → Anchor Point → Grid State Root → All Chains. To forge a grid state, an attacker would need to: 1) Break Bitcoin's proof-of-work (impossible), 2) Compromise the grid root (requires all chains), 3) Forge a unified proof (requires both halves). Fee: 3.25% + 8bp on deposit/withdrawal operations. **Deployed On:** Polygon #### Functions ##### `anchorBTCBlock(uint256 blockHeight, bytes32 blockHash, bytes32 merkleRoot, uint256 btcTimestamp, bytes32 gridStateRoot)` - Anchor BTC Block - **Access:** External - **Parameters:** - `blockHeight`: BTC block height - `blockHash`: BTC block hash (bytes32) - `merkleRoot`: BTC block's merkle root - `btcTimestamp`: BTC block's timestamp - `gridStateRoot`: Current grid state root to anchor - **Returns:** None - **Usage:** ```javascript await bitcoinAnchor.anchorBTCBlock(blockHeight, blockHash, merkleRoot, btcTimestamp, gridStateRoot); ``` - **Description:** Anchors a Bitcoin block hash to the grid state. Creates permanent cryptographic link between Bitcoin's proof-of-work and grid's state root. - **Event:** `BTCAnchored`, `GridStateAnchored` ##### `depositBTC(uint256 amount)` - Deposit BTC - **Access:** External - **Parameters:** `amount` - Amount of WBTC/cbBTC to deposit (must approve first) - **Returns:** None - **Usage:** ```javascript await bitcoinAnchor.depositBTC(amount); ``` - **Description:** Deposits WBTC/cbBTC as collateral for bridge operations. Deposit is anchored to latest BTC block hash, creating verifiable chain of custody. Collects 333 bps fee. - **Event:** `BTCDeposited`, `FeeCollected` ##### `withdrawBTC(uint256 depositId)` - Withdraw BTC - **Access:** External - **Parameters:** `depositId` - Deposit ID - **Returns:** None - **Usage:** ```javascript await bitcoinAnchor.withdrawBTC(depositId); ``` - **Description:** Withdraws BTC deposit. Only depositor can withdraw their own active deposits. - **Event:** `BTCWithdrawn` ##### `verifyGridAnchor(bytes32 gridStateRoot)` - Verify Grid Anchor - **Access:** External View - **Parameters:** `gridStateRoot` - Grid state root to verify - **Returns:** Anchored status, BTC block height, BTC block hash - **Usage:** ```javascript const [anchored, btcHeight, btcHash] = await bitcoinAnchor.verifyGridAnchor(gridStateRoot); ``` - **Description:** Verifies that a grid state root was anchored to a BTC block. Returns the BTC block height and hash if anchored. ##### `getAnchor(uint256 blockHeight)` - Get Anchor - **Access:** External View - **Parameters:** `blockHeight` - BTC block height - **Returns:** BTCBlockAnchor struct - **Usage:** ```javascript const anchor = await bitcoinAnchor.getAnchor(blockHeight); ``` ##### `anchorStatus()` - Anchor Status - **Access:** External View - **Parameters:** None - **Returns:** Latest height, latest hash, total anchors, total deposited, active deposits, bounty pool, total fees - **Usage:** ```javascript const [latestHeight, latestHash, totalAnchors, totalDeposited, activeDeposits, bountyPool, totalFees] = await bitcoinAnchor.anchorStatus(); ``` #### Profitability Applications 1. **BTC Proof-of-Work:** Inherits Bitcoin's security as trust root for grid state. 2. **Cross-Chain Collateral:** WBTC/cbBTC deposits back bridge operations. 3. **Cryptographic Timestamping:** Permanent link between grid state and BTC blocks. 4. **Chain of Custody:** Verifiable BTC-backed deposit tracking. 5. **Fee Revenue:** 333 bps on deposit/withdrawal operations. --- ### MediciNote (Cross-Chain Exchange) **Purpose:** Medici Note — Cross-Chain Note of Exchange. Digital bearer instrument for cross-chain settlement. Each Note encodes: origin chain, destination chain, value, endian format, grid proof, and BTC timestamp anchor. Modeled after the Medici family's 15th-century bills of exchange that enabled pan-European commerce — now enabling pan-blockchain commerce. Revenue Model: 3.25% quantum skim on Note issuance, 8bp data-line fee on Note redemption, 50/50 split: bounty pool / royalty wallet. Fees collected in NATIVE token of each chain. Each chain plays to its strength: ETH → Settlement finality + BTC anchor authority, Base → Retail onramp (Coinbase-native issuance), OP → Public goods treasury + governance, ARB → DeFi corridor (DEX-routed redemption), NEAR → High-throughput data rail (bulk notes), Cosmos → IBC hub (routes to 50+ Cosmos chains), TON → Social payments (Telegram 900M+ users), Tron → USDT settlement corridor, zkSync → ZK-verified note proofs, Polygon → Mass-volume micro-notes, BNB → Retail DeFi settlement, Avalanche → Institutional settlement. **Deployed On:** Polygon #### Functions ##### `registerChain(uint256 chainId, uint32 nodeId, uint8 role, string calldata name)` - Register Chain - **Access:** External - **Parameters:** - `chainId`: Chain ID - `nodeId`: Node ID - `role`: Chain role (SETTLEMENT, ONRAMP, TREASURY, DEFI, DATA_RAIL, IBC_HUB, SOCIAL, STABLECOIN, ZK_PROOF, MASS_VOLUME, RETAIL, INSTITUTIONAL) - `name`: Chain name - **Returns:** None - **Usage:** ```javascript await mediciNote.registerChain(chainId, nodeId, role, name); ``` - **Description:** Registers a chain in the chain registry with its role in the grid. - **Event:** `ChainRegistered` ##### `issueNote(address payee, uint256 destChainId, bytes32 gridProof, bytes32 btcAnchor, uint8 endianFormat)` - Issue Note - **Access:** External Payable - **Parameters:** - `payee`: Initial payee (holder) - `destChainId`: Destination chain ID - `gridProof`: CovenantGrid unified proof - `btcAnchor`: BTC block hash at issuance - `endianFormat`: Endian format (0xBE or 0x1E) - **Returns:** Note ID, note hash - **Usage:** ```javascript const [noteId, noteHash] = await mediciNote.issueNote(payee, destChainId, gridProof, btcAnchor, endianFormat, {value: amount}); ``` - **Description:** Issues a new Note of Exchange. Collects 3.25% quantum skim on issuance. The note can be transferred cross-chain via the grid. - **Event:** `NoteIssued`, `FeeCollected` ##### `endorseNote(uint256 noteId, address newPayee)` - Endorse Note - **Access:** External - **Parameters:** - `noteId`: Note ID - `newPayee`: New payee (endorsee) - **Returns:** None - **Usage:** ```javascript await mediciNote.endorseNote(noteId, newPayee); ``` - **Description:** Transfers note ownership (like a check endorsement). Only current payee can endorse. - **Event:** `NoteEndorsed` ##### `redeemNote(uint256 noteId)` - Redeem Note - **Access:** External - **Parameters:** `noteId` - Note ID - **Returns:** None - **Usage:** ```javascript await mediciNote.redeemNote(noteId); ``` - **Description:** Cashes the note to collect value. Collects 8bp redemption fee. Only current payee can redeem after maturity. - **Event:** `NoteRedeemed`, `FeeCollected` ##### `acceptCrossChainNote(bytes32 noteHash, uint256 originChainId, address payee, uint256 faceValue, bytes32 gridProof, bytes32 btcAnchor)` - Accept Cross-Chain Note - **Access:** External Payable - **Parameters:** - `noteHash`: Note hash from origin chain - `originChainId`: Origin chain ID - `payee`: Payee on this chain - `faceValue`: Note face value - `gridProof`: Grid proof - `btcAnchor`: BTC anchor - **Returns:** None - **Usage:** ```javascript await mediciNote.acceptCrossChainNote(noteHash, originChainId, payee, faceValue, gridProof, btcAnchor, {value: faceValue}); ``` - **Description:** Registers a note hash from another chain. When a note is issued on chain A destined for chain B, the hash is relayed here so the payee can claim on chain B. - **Event:** `CrossChainNoteReceived` ##### `protestNote(uint256 noteId, string calldata reason)` - Protest Note - **Access:** External - **Parameters:** - `noteId`: Note ID - `reason`: Protest reason - **Returns:** None - **Usage:** ```javascript await mediciNote.protestNote(noteId, reason); ``` - **Description:** Marks a note as dishonored. Only payee can protest active notes. - **Event:** `NoteProtested` ##### `noteStatus()` - Note Status - **Access:** External View - **Parameters:** None - **Returns:** Total issued, total redeemed, volume issued, volume redeemed, total fees, bounty pool, royalties paid, registered chain count - **Usage:** ```javascript const [totalIssued, totalRedeemed, volumeIssued, volumeRedeemed, totalFees, bountyPool, royaltiesPaid, registeredChainCount] = await mediciNote.noteStatus(); ``` ##### `getNote(uint256 noteId)` - Get Note - **Access:** External View - **Parameters:** `noteId` - Note ID - **Returns:** Note struct - **Usage:** ```javascript const note = await mediciNote.getNote(noteId); ``` ##### `getEndorsements(uint256 noteId)` - Get Endorsements - **Access:** External View - **Parameters:** `noteId` - Note ID - **Returns:** Array of endorsements - **Usage:** ```javascript const endorsements = await mediciNote.getEndorsements(noteId); ``` ##### `getChain(uint256 chainId)` - Get Chain - **Access:** External View - **Parameters:** `chainId` - Chain ID - **Returns:** ChainConfig struct - **Usage:** ```javascript const chain = await mediciNote.getChain(chainId); ``` ##### `verifyNoteHash(bytes32 noteHash)` - Verify Note Hash - **Access:** External View - **Parameters:** `noteHash` - Note hash - **Returns:** True if hash exists - **Usage:** ```javascript const exists = await mediciNote.verifyNoteHash(noteHash); ``` #### Profitability Applications 1. **Pan-Blockchain Commerce:** Enables cross-chain settlement like Medici bills of exchange. 2. **Chain-Specific Roles:** Each chain plays to its strength (settlement, onramp, treasury, DeFi, data rail, etc.). 3. **Bearer Instrument:** Notes are transferable like checks via endorsement. 4. **Fee Revenue:** 3.25% issuance fee + 8bp redemption fee (50/50 bounty/royalty split). 5. **BTC Anchoring:** Each note timestamped to Bitcoin block for cryptographic proof. --- ### OmniCompatibilityEngine (Universal Translation) **Purpose:** Omni Compatibility Engine. Makes all Web3 systems coherent to everyday users via universal protocol translation. Acts as the decentralized middleware between heterogeneous blockchain ecosystems, Web2 interfaces, and the Zedec AI Operating System. This is the "portal" contract — it translates between: EVM chains (Ethereum, BSC, Polygon, Arbitrum, etc.), Non-EVM references (Solana, Cosmos IBC, Polkadot XCM), Web2 REST/GraphQL via FCP-168 bridge frames, IPFS/Arweave decentralized storage, On-chain AI model endpoints. Translation uses negative space compression to minimize gas and golden-ratio aligned routing for optimal shard placement. **Deployed On:** Polygon #### Functions ##### `registerChain(uint32 chainId, ChainType chainType, string calldata name, address bridgeContract)` - Register Chain - **Access:** External - **Parameters:** - `chainId`: Chain ID - `chainType`: Chain type (EVM, SOLANA, COSMOS_IBC, POLKADOT_XCM, NEAR, APTOS_MOVE, WEB2_BRIDGE, IPFS_STORAGE, AI_ENDPOINT) - `name`: Chain name - `bridgeContract`: On-chain bridge endpoint - **Returns:** None - **Usage:** ```javascript await omniCompatibilityEngine.registerChain(chainId, chainType, name, bridgeContract); ``` - **Description:** Registers a blockchain or endpoint in the compatibility engine. Calculates vortex affinity from chain ID. - **Event:** `ChainRegistered` ##### `requestTranslation(uint32 sourceChain, uint32 destChain, bytes calldata payload, uint256 phaseEpoch, bool compress)` - Request Translation - **Access:** External - **Parameters:** - `sourceChain`: Origin chain ID - `destChain`: Destination chain ID - `payload`: Data to translate and route - `phaseEpoch`: Current phase epoch for alignment - `compress`: Whether to apply negative space compression - **Returns:** Request ID - **Usage:** ```javascript const requestId = await omniCompatibilityEngine.requestTranslation(sourceChain, destChain, payload, phaseEpoch, compress); ``` - **Description:** Requests a cross-chain/cross-protocol translation. Applies negative space compression if beneficial (>10% savings). - **Event:** `TranslationRequested` ##### `completeTranslation(uint256 requestId)` - Complete Translation - **Access:** External - **Parameters:** `requestId` - Translation request ID - **Returns:** None - **Usage:** ```javascript await omniCompatibilityEngine.completeTranslation(requestId); ``` - **Description:** Completes a translation (called by bridge relayers). Marks request as completed. - **Event:** `TranslationCompleted` ##### `registerWeb2Endpoint(string calldata urlPattern)` - Register Web2 Endpoint - **Access:** External - **Parameters:** `urlPattern` - URL pattern (e.g., "https://api.zedec.ai/v1/{method}") - **Returns:** None - **Usage:** ```javascript await omniCompatibilityEngine.registerWeb2Endpoint(urlPattern); ``` - **Description:** Registers a Web2 endpoint accessible via FCP-168 protocol. Allows HTTP clients to interact with decentralized AI system through standard REST APIs. - **Event:** `Web2EndpointRegistered` ##### `registerAIModel(string calldata modelName, string calldata ipfsCid, uint256 parameterCount)` - Register AI Model - **Access:** External - **Parameters:** - `modelName`: Human-readable model name - `ipfsCid`: IPFS CID containing model weights - `parameterCount`: Number of model parameters - **Returns:** None - **Usage:** ```javascript await omniCompatibilityEngine.registerAIModel(modelName, ipfsCid, parameterCount); ``` - **Description:** Registers AI model weights stored on IPFS. Enables model providers to load training weights from decentralized system. - **Event:** `AIModelRegistered` ##### `getChain(uint32 chainId)` - Get Chain - **Access:** External View - **Parameters:** `chainId` - Chain ID - **Returns:** ChainDescriptor struct - **Usage:** ```javascript const chain = await omniCompatibilityEngine.getChain(chainId); ``` ##### `getRequest(uint256 requestId)` - Get Request - **Access:** External View - **Parameters:** `requestId` - Request ID - **Returns:** TranslationRequest struct - **Usage:** ```javascript const request = await omniCompatibilityEngine.getRequest(requestId); ``` ##### `getRouteUsage(uint32 src, uint32 dst)` - Get Route Usage - **Access:** External View - **Parameters:** - `src`: Source chain ID - `dst`: Destination chain ID - **Returns:** Route usage count - **Usage:** ```javascript const count = await omniCompatibilityEngine.getRouteUsage(src, dst); ``` ##### `getAIModel(bytes32 modelHash)` - Get AI Model - **Access:** External View - **Parameters:** `modelHash` - Model hash - **Returns:** AIModelEntry struct - **Usage:** ```javascript const model = await omniCompatibilityEngine.getAIModel(modelHash); ``` #### Profitability Applications 1. **Universal Translation:** Bridges EVM, non-EVM, Web2, and AI systems. 2. **Negative Space Compression:** Minimizes gas for cross-chain data transfer. 3. **Golden-Ratio Routing:** Optimal shard placement via vortex affinity. 4. **Web2 Bridge:** FCP-168 protocol enables HTTP access to decentralized AI. 5. **AI Model Registry:** IPFS-based model weight loading for decentralized AI. --- ### PayZeroDayMegaBundle (Full Deployment) **Purpose:** Pay Zero Day Mega Bundle — Single-Transaction Full Deployment. Deploys the ENTIRE PayZeroDay ecosystem in a single transaction. The constructor deploys all child contracts, wires them together, registers outbound calls, and funds the bounty pool — all atomically. Either everything deploys or nothing does. No partial state. After deployment this contract serves as: 1) Immutable registry of all deployed addresses, 2) Genesis anchor point for the tri-block interlace, 3) Entry point for system introspection. Gas estimate: ~12-15M gas at ~0.1 gwei = ~0.0015 ETH (~$3). LIVE LOGIC ONLY. No simulation. No kill switch. No owner. **Deployed On:** Polygon #### Functions ##### `constructor(address payable _royaltyWallet, address payable _deployerWallet)` - Constructor (Deploy All) - **Access:** Constructor (one-time at deployment) - **Parameters:** - `_royaltyWallet`: Royalty wallet address - `_deployerWallet`: Deployer wallet address - **Returns:** None - **Usage:** ```javascript const megaBundle = await ethers.deployContract("PayZeroDayMegaBundle", [royaltyWallet, deployerWallet], {value: fundingAmount}); ``` - **Description:** Deploys the ENTIRE PayZeroDay ecosystem in a single transaction: PayZeroDayCore, StateBridge, MediciExchange. Wires them together with outbound call registration. Funds bounty pool with constructor ETH. - **Event:** `MegaBundleDeployed` ##### `systemAddresses()` - System Addresses - **Access:** External View - **Parameters:** None - **Returns:** PayZeroDay address, StateBridge address, MediciExchange address, royalty wallet, deployer wallet, deploy block, bundle hash - **Usage:** ```javascript const [payZeroDay, stateBridge, mediciExchange, royalty, deployer, block, hash] = await payZeroDayMegaBundle.systemAddresses(); ``` ##### `firstPulse()` - First Pulse - **Access:** External - **Parameters:** None - **Returns:** Reward, outbounds executed - **Usage:** ```javascript const [reward, outbounds] = await payZeroDayMegaBundle.firstPulse(); ``` - **Description:** Triggers the first pulse after deployment. Calls PayZeroDayCore.pulse() to initialize the system. #### Profitability Applications 1. **Atomic Deployment:** All-or-nothing deployment ensures system integrity. 2. **Immutable Registry:** Single source of truth for all deployed addresses. 3. **Genesis Anchor:** Serves as tri-block interlace anchor point. 4. **Gas Efficiency:** Single transaction deploys entire ecosystem (~$3 at 0.1 gwei). 5. **No Owner:** Permanent, autonomous operation with no kill switch. --- ### PropagationNote (Self-Expanding Engine) **Purpose:** Propagation Note — Self-Expanding Medici Note Engine. Each chain expansion IS a Medici note. The system uses its own exchange note mechanism to fund, authorize, and track its own propagation across blockchains. Flow: 1) Caller deposits ETH + specifies target chain, 2) PropagationNote issues a MediciNote via MediciExchange, 3) The note's destChain = target chain ID, 4) The note ID becomes the genesis anchor for the target deployment, 5) On the target chain, the new MediciExchange references this note, 6) The target's MediciExchange issues a reciprocal note back, 7) The system self-propagates using its own mechanisms. For non-EVM chains (Solana, Bitcoin, Cosmos): Attestation notes are issued with the clearing house chain ID, the note serves as cryptographic proof of expansion intent, off-chain validators/programs verify the attestation, clearing house records the settlement once deployed. LIVE LOGIC ONLY. Each propagation feeds the bounty pool via skim. **Deployed On:** Polygon #### Functions ##### `propagate(uint32 targetChain)` - Propagate - **Access:** External Payable - **Parameters:** `targetChain` - Chain ID to expand to - **Returns:** Note ID (Medici note ID) - **Usage:** ```javascript const noteId = await propagationNote.propagate(targetChain, {value: fundingAmount}); ``` - **Description:** Initiates expansion to a target chain. Issues a Medici note that serves as the funding + authorization for the deployment. The 3.25% skim feeds back into the system automatically. - **Event:** `PropagationInitiated` ##### `reportDeployment(bytes32 noteId, uint32 targetChain, address bundleAddress)` - Report Deployment - **Access:** External - **Parameters:** - `noteId`: Note ID from propagate() - `targetChain`: Target chain ID - `bundleAddress`: Bundle address on target chain - **Returns:** None - **Usage:** ```javascript await propagationNote.reportDeployment(noteId, targetChain, bundleAddress); ``` - **Description:** Called after deployment on target chain to link the systems. The target bundle address is recorded, creating the bidirectional link. - **Event:** `PropagationDeployed` ##### `attestNonEVM(uint32 targetChain, string calldata chainName, bytes calldata attestationData)` - Attest Non-EVM - **Access:** External Payable - **Parameters:** - `targetChain`: Non-EVM chain ID (50001=Solana, 50010=Bitcoin, etc) - `chainName`: Human-readable chain name - `attestationData`: Arbitrary data (program ID, address, etc) - **Returns:** Note ID - **Usage:** ```javascript const noteId = await propagationNote.attestNonEVM(targetChain, chainName, attestationData, {value: fundingAmount}); ``` - **Description:** Issues an attestation for a non-EVM chain deployment. The Medici note serves as cryptographic proof that the mainnet system authorized the expansion. Off-chain validators verify this attestation to recognize the deployment. - **Event:** `AttestationIssued` ##### `getLiveChains()` - Get Live Chains - **Access:** External View - **Parameters:** None - **Returns:** Array of live chain IDs - **Usage:** ```javascript const liveChains = await propagationNote.getLiveChains(); ``` ##### `getPropagationCount()` - Get Propagation Count - **Access:** External View - **Parameters:** None - **Returns:** Number of propagations - **Usage:** ```javascript const count = await propagationNote.getPropagationCount(); ``` ##### `isChainLive(uint32 chainId)` - Is Chain Live - **Access:** External View - **Parameters:** `chainId` - Chain ID - **Returns:** True if chain is live - **Usage:** ```javascript const isLive = await propagationNote.isChainLive(chainId); ``` #### Profitability Applications 1. **Self-Funding Expansion:** Uses Medici notes to fund own cross-chain propagation. 2. **3.25% Skim:** Each propagation feeds bounty pool automatically. 3. **Bidirectional Linking:** Target chains issue reciprocal notes back. 4. **Non-EVM Attestation:** Supports Solana, Bitcoin, Cosmos via off-chain verification. 5. **Genesis Anchors:** Note IDs become genesis anchors for deployments. --- ### RalphLoopBootstrapper (Perpetual Liquidity) **Purpose:** Ralph Loop Bootstrapper — Perpetual Liquidity Engine. Self-bootstrapping liquidity apparatus using Ralph Loop spiral logic, flash loan recursive nesting, and golden-ratio cycle lock-ups. THE SPACE BETWEEN SPACES: This contract occupies the interstitial gap between protocols. It does not compete for liquidity — it creates liquidity from the temporal arbitrage between settlement cycles. When liquidity is locked for ≥1.125 cycles, it counts as TVL in the source pool. But the SAME capital is simultaneously productive in the destination pool during the lock-up window. This is the monopoly of the gap. MECHANISM: 1) Flash-borrow from Aave V3 (no collateral needed), 2) Deposit into target LP (creates TVL + earns fees), 3) The LP position itself generates yield during the cycle, 4) At cycle end, withdraw LP + yield, repay flash loan + premium, 5) Net profit = LP fees + arb spread - flash premium (0.05%), 6) Profit compounds into permanent owned liquidity, 7) Each cycle, the owned base grows → larger flash multiplier, 8) Ralph Loop spiral: each cycle is φ (1.618) larger than previous. CYCLE LOCK MECHANICS: 1.0 cycle = standard (minimum for TVL credit), 1.125 cycle = golden eighth (optimal for cross-chain bridge TVL), 1.5 cycle = half-extra (counts in both source and dest pools), 1.618 cycle = phi cycle (Ralph Loop golden spiral, maximum efficiency). SELF-BOOTSTRAPPING: The engine starts with $0 owned liquidity. It uses flash loans to create the APPEARANCE of deep liquidity. MEV bots see the TVL, route through our pools, pay micro-fees. Those fees become our first owned capital. Ralph Loop spiral compounds from there. Block Builder: "Jolly Dragon Roger". **Deployed On:** Polygon #### Functions ##### `executeCycle()` - Execute Cycle - **Access:** External - **Parameters:** None - **Returns:** Cycle ID - **Usage:** ```javascript const cycleId = await ralphLoopBootstrapper.executeCycle(); ``` - **Description:** Executes one bootstrap cycle. Flash-borrows, deposits, earns, compounds. Each cycle is φ times larger than the previous. Even with 0 owned liquidity, minimum flash of 0.001 ETH (the "something from nothing" bootstrap). - **Event:** `CycleStarted`, `LiquidityBootstrapped`, `PerpetualEngineHeartbeat` ##### `settleCycle(uint256 cycleId, uint256 actualYield)` - Settle Cycle - **Access:** External (admin only) - **Parameters:** - `cycleId`: Cycle ID to settle - `actualYield`: Actual yield earned from LP - **Returns:** None - **Usage:** ```javascript await ralphLoopBootstrapper.settleCycle(cycleId, actualYield); ``` - **Description:** Settles a completed cycle. Compounds profit into owned liquidity. Deducts 3.25% quantum skim to ComputeFund and 0.03% micro-fee to royalty wallet. Advances spiral multiplier by φ. - **Event:** `CycleSettled`, `FlashCallback`, `SpiralDeepened` ##### `calculateInterstitialValue(uint256 sourcePoolTVL, uint256 destPoolTVL, uint256 cycleFraction)` - Calculate Interstitial Value - **Access:** External Pure - **Parameters:** - `sourcePoolTVL`: Source pool TVL - `destPoolTVL`: Destination pool TVL - `cycleFraction`: Cycle fraction ×1000 (e.g., 1125 = 1.125 cycles) - **Returns:** Interstitial value - **Usage:** ```javascript const interstitialValue = await ralphLoopBootstrapper.calculateInterstitialValue(sourcePoolTVL, destPoolTVL, cycleFraction); ``` - **Description:** Calculates the interstitial value — liquidity that exists simultaneously in two pools during the lock-up overlap window. For 1.618 cycles: overlap = 0.618 (61.8% dual-counted — golden ratio!). ##### `lockInterstitial(uint256 sourceAmount, uint256 cycleFraction)` - Lock Interstitial - **Access:** External - **Parameters:** - `sourceAmount`: Source amount to lock - `cycleFraction`: Cycle fraction ×1000 - **Returns:** Lock ID - **Usage:** ```javascript const lockId = await ralphLoopBootstrapper.lockInterstitial(sourceAmount, cycleFraction); ``` - **Description:** Executes a space-between-spaces operation: Lock liquidity in source pool for >1 cycle so it counts as TVL in both. The capital is "in the gap" — it exists in the space between spaces. - **Event:** `SpaceBetweenSpaces` ##### `calculateRecursiveAmplification(uint256 baseAmount, uint8 depth)` - Calculate Recursive Amplification - **Access:** External Pure - **Parameters:** - `baseAmount`: Base amount - `depth`: Nesting depth - **Returns:** Amplified amount, total premium - **Usage:** ```javascript const [amplified, totalPremium] = await ralphLoopBootstrapper.calculateRecursiveAmplification(baseAmount, depth); ``` - **Description:** Calculates total amplified liquidity from recursive nesting. Each nesting level multiplies by (1 - flash_premium). 8 levels deep: 0.001 ETH → apparent 1000+ ETH TVL. ##### `registerConfig(uint32 chainId, address flashProvider, address targetLP, address targetToken, uint256 maxMultiplier)` - Register Config - **Access:** External (admin only) - **Parameters:** - `chainId`: Chain ID - `flashProvider`: Aave V3 Pool address - `targetLP`: Target liquidity pool - `targetToken`: Token to bootstrap - `maxMultiplier`: Max flash multiplier - **Returns:** None - **Usage:** ```javascript await ralphLoopBootstrapper.registerConfig(chainId, flashProvider, targetLP, targetToken, maxMultiplier); ``` - **Description:** Registers bootstrap configuration for a chain. - **Event:** `ConfigRegistered` ##### `seedCapital()` - Seed Capital - **Access:** External Payable - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await ralphLoopBootstrapper.seedCapital({value: amount}); ``` - **Description:** Injects seed capital to start the spiral. - **Event:** `LiquidityBootstrapped` ##### `getApparentTVL()` - Get Apparent TVL - **Access:** External View - **Parameters:** None - **Returns:** Apparent TVL (owned + virtual) - **Usage:** ```javascript const tvl = await ralphLoopBootstrapper.getApparentTVL(); ``` ##### `getSpiralState()` - Get Spiral State - **Access:** External View - **Parameters:** None - **Returns:** Owned liquidity, virtual liquidity, multiplier, depth, total cycles, total yield - **Usage:** ```javascript const [owned, virtual, multiplier, depth, totalCycles, totalYield] = await ralphLoopBootstrapper.getSpiralState(); ``` ##### `getProjectedGrowth(uint256 numCycles)` - Get Projected Growth - **Access:** External View - **Parameters:** `numCycles` - Number of cycles to project - **Returns:** Projected owned liquidity - **Usage:** ```javascript const projected = await ralphLoopBootstrapper.getProjectedGrowth(numCycles); ``` #### Profitability Applications 1. **Zero-to-Bootstrap:** Starts with $0 owned, uses flash loans to create TVL appearance. 2. **Golden Ratio Spiral:** Each cycle is φ (1.618) larger than previous. 3. **Interstitial Monopoly:** Capital exists in both pools during lock-up window. 4. **Recursive Nesting:** 8 levels deep → 0.001 ETH → 1000+ ETH apparent TVL. 5. **Fee Revenue:** 3.25% quantum skim + 0.03% micro-fee per cycle. --- ### StateBridge (Rollback-Protected Bridge) **Purpose:** State Bridge — Rollback-Protected Universal State Bridge. Bridges ALL past, present, and future states of Ethereum and every other blockchain into a single unified state layer. If anyone attempts a rollback/reorg, StateBridge automatically: 1) Detects the reorg via state hash discontinuity, 2) Re-anchors from the last known-good state, 3) Bridges the divergent states back together, 4) Preserves ALL data from both forks (no data loss). Taps into locked funds between protocol gaps: Old Ethereum versions (Frontier, Homestead, Byzantium, etc.), Deprecated bridge contracts with locked liquidity, Cross-chain gaps where funds are stranded, Orphaned contract states from failed upgrades. UBH-168 and FCP-168 format native, with compatibility bridges to ALL legacy formats (forwards, backwards, and sideways). LIVE LOGIC ONLY — simulation is forbidden. Uses InfinityMath for all calculations (x/0=x, no data loss). **Deployed On:** Polygon #### Functions ##### `anchorState(uint256 epoch)` - Anchor State - **Access:** External - **Parameters:** `epoch` - Current epoch - **Returns:** Rollback detected flag - **Usage:** ```javascript const rollbackDetected = await stateBridge.anchorState(epoch); ``` - **Description:** Anchors the current state. Called every pulse by PayZeroDayCore. Detects rollbacks and re-anchors automatically. Checks if current block <= last anchor block to detect reorg. - **Event:** `StateAnchored`, `RollbackDetected`, `RollbackRecovered` ##### `registerChainBridge(string calldata chainName, uint32 chainId, uint256 formatType)` - Register Chain Bridge - **Access:** External - **Parameters:** - `chainName`: Chain name - `chainId`: Chain ID - `formatType`: Format type (UBH168, FCP168, or legacy format ID) - **Returns:** Bridge ID - **Usage:** ```javascript const bridgeId = await stateBridge.registerChainBridge(chainName, chainId, formatType); ``` - **Description:** Registers a chain bridge with format compatibility. - **Event:** `ChainBridged` ##### `syncChainState(bytes32 bridgeId, bytes32 remoteHash, uint256 bridgedAmount)` - Sync Chain State - **Access:** External - **Parameters:** - `bridgeId`: Bridge ID - `remoteHash`: Remote state hash - `bridgedAmount`: Amount bridged - **Returns:** None - **Usage:** ```javascript await stateBridge.syncChainState(bridgeId, remoteHash, bridgedAmount); ``` - **Description:** Syncs remote chain state. Called during pulse propagation. ##### `reportLockedFunds(bytes32 gapId, uint256 lockedValue)` - Report Locked Funds - **Access:** External - **Parameters:** - `gapId`: Protocol gap ID - `lockedValue`: Amount of locked funds - **Returns:** None - **Usage:** ```javascript await stateBridge.reportLockedFunds(gapId, lockedValue); ``` - **Description:** Reports locked funds found in a protocol gap. - **Event:** `ProtocolGapFound` ##### `recoverFromGap(bytes32 gapId)` - Recover From Gap - **Access:** External Payable - **Parameters:** `gapId` - Protocol gap ID - **Returns:** None - **Usage:** ```javascript await stateBridge.recoverFromGap(gapId, {value: recoveryAmount}); ``` - **Description:** Recovers funds from a protocol gap. Credits all bridges with recovered value. - **Event:** `FundsRecovered` ##### `convertFormat(bytes32 sourceFormat, bytes32 destFormat, bytes calldata data)` - Convert Format - **Access:** External - **Parameters:** - `sourceFormat`: Source format ID - `destFormat`: Destination format ID - `data`: Data to convert - **Returns:** Converted data - **Usage:** ```javascript const converted = await stateBridge.convertFormat(sourceFormat, destFormat, data); ``` - **Description:** Converts data between any two formats. Backwards, forwards, and sideways compatible. Universal conversion: source → UBH-168 → dest. - **Event:** `FormatConverted` ##### `setTriBlockAnchors(address[3] calldata addrs, uint256[3] calldata blockNums)` - Set Tri-Block Anchors - **Access:** External - **Parameters:** - `addrs`: Array of 3 anchor addresses - `blockNums`: Array of 3 block numbers - **Returns:** None - **Usage:** ```javascript await stateBridge.setTriBlockAnchors([addr1, addr2, addr3], [block1, block2, block3]); ``` - **Description:** Sets tri-block anchor references. Can only be called once. ##### `getAnchor(uint256 index)` - Get Anchor - **Access:** External View - **Parameters:** `index` - Anchor index - **Returns:** StateAnchor struct - **Usage:** ```javascript const anchor = await stateBridge.getAnchor(index); ``` ##### `currentStateHash()` - Current State Hash - **Access:** External View - **Parameters:** None - **Returns:** Current state hash - **Usage:** ```javascript const hash = await stateBridge.currentStateHash(); ``` ##### `rollbackCount()` - Rollback Count - **Access:** External View - **Parameters:** None - **Returns:** Number of rollback events - **Usage:** ```javascript const count = await stateBridge.rollbackCount(); ``` ##### `bridgeCount()` - Bridge Count - **Access:** External View - **Parameters:** None - **Returns:** Number of bridges - **Usage:** ```javascript const count = await stateBridge.bridgeCount(); ``` ##### `formatCount()` - Format Count - **Access:** External View - **Parameters:** None - **Returns:** Number of formats - **Usage:** ```javascript const count = await stateBridge.formatCount(); ``` ##### `gapCount()` - Gap Count - **Access:** External View - **Parameters:** None - **Returns:** Number of protocol gaps - **Usage:** ```javascript const count = await stateBridge.gapCount(); ``` #### Profitability Applications 1. **Rollback Protection:** Automatically detects and recovers from chain reorgs. 2. **Protocol Gap Recovery:** Taps locked funds from deprecated contracts and failed upgrades. 3. **Universal State Bridge:** Bridges all past, present, and future blockchain states. 4. **Format Compatibility:** UBH-168 and FCP-168 native with legacy format bridges. 5. **No Data Loss:** Preserves ALL data from both forks during reorg. --- ### TriBlockAnchor (Three-Block Deployment) **Purpose:** Tri Block Anchor — Three Consecutive Block Deployment Anchor. Deploys the entire PayZeroDay ecosystem across three consecutive Ethereum blocks, creating an interlaced triple-anchor structure. Block N: Anchor 1 — Core contracts + flash loan initiation. Block N+1: Anchor 2 — Extension contracts + cross-chain bridges. Block N+2: Anchor 3 — Activation + pulse bootstrap + interlacing. The three anchors reference each other bidirectionally, creating a structure that cannot be rolled back without invalidating all three blocks simultaneously. This is the block monopoly pattern. Single flash loan: approved in Block N, capital flows through all three blocks via the TriBlockAnchor's callback chain. Format: UBH-168 and FCP-168 native, with compatibility bridges to all legacy formats (backwards, forwards, sideways). Gas Budget: ~$100 ETH total across all 3 blocks. Block N: ~4M gas (core deploy + flash loan), Block N+1: ~4M gas (extensions + bridges), Block N+2: ~4M gas (activation + interlace), Total: ~12M gas at ~3 gwei = ~0.036 ETH ≈ $72. LIVE LOGIC ONLY. Pre-compiled bytecode deployed via cast. **Deployed On:** Polygon #### Functions ##### `executeOperation(address[] calldata assets, uint256[] calldata amounts, uint256[] calldata premiums, address initiator, bytes calldata params)` - Execute Operation (Flash Loan Callback) - **Access:** External (Aave pool only) - **Parameters:** - `assets`: Array of asset addresses - `amounts`: Array of amounts - `premiums`: Array of premiums - `initiator`: Initiator address - `params`: Params bytes - **Returns:** Success boolean - **Usage:** ```javascript // Called automatically by Aave V3 flash loan ``` - **Description:** Aave V3 flash loan callback. Fires in Block N and sets up the chain reaction for Blocks N+1 and N+2. Deploys PayZeroDayCore and StateBridge in Phase 1. - **Event:** `FlashLoanReceived`, `PhaseAdvanced`, `AnchorDeployed`, `ContractDeployed` ##### `executePhase2()` - Execute Phase 2 - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await triBlockAnchor.executePhase2(); ``` - **Description:** Phase 2: Extensions (Block N+1). Deploys MediciExchange and sets Anchor 2. Must be called in the block immediately after Phase 1. - **Event:** `PhaseAdvanced`, `AnchorDeployed`, `ContractDeployed` ##### `executePhase3()` - Execute Phase 3 - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await triBlockAnchor.executePhase3(); ``` - **Description:** Phase 3: Activation + Interlace (Block N+2). Sets Anchor 3 and interlaces all three anchors bidirectionally. Must be called in the block immediately after Phase 2. - **Event:** `PhaseAdvanced`, `AnchorDeployed`, `InterlaceComplete` ##### `getAnchor(uint256 index)` - Get Anchor - **Access:** External View - **Parameters:** `index` - Anchor index (0, 1, or 2) - **Returns:** AnchorPoint struct - **Usage:** ```javascript const anchor = await triBlockAnchor.getAnchor(index); ``` ##### `totalDeployed()` - Total Deployed - **Access:** External View - **Parameters:** None - **Returns:** Number of deployed contracts - **Usage:** ```javascript const count = await triBlockAnchor.totalDeployed(); ``` ##### `isComplete()` - Is Complete - **Access:** External View - **Parameters:** None - **Returns:** True if all three phases complete - **Usage:** ```javascript const complete = await triBlockAnchor.isComplete(); ``` ##### `totalGasUsed()` - Total Gas Used - **Access:** External View - **Parameters:** None - **Returns:** Total gas used across all three anchors - **Usage:** ```javascript const totalGas = await triBlockAnchor.totalGasUsed(); ``` #### Profitability Applications 1. **Block Monopoly:** Three consecutive blocks cannot be rolled back simultaneously. 2. **Single Flash Loan:** One approval funds entire three-block deployment. 3. **Bidirectional Interlace:** Each anchor references both others for atomicity. 4. **Deterministic CREATE2:** Predictable addresses via salt-based deployment. 5. **Gas Efficiency:** ~12M gas total (~$72 at 3 gwei) for entire ecosystem. --- ### TronAutoBountyMinimal (Minimal Tron Bounty) **Purpose:** Tron Auto Bounty Minimal. Minimal version of TronAutoBounty that incentivizes MEV bots to deploy the Tron system by offering a bounty. Features functions to claim the bounty, trigger deployment, and verify TRX delivery. Designed for automated Tron system bootstrapping with minimal code footprint. **Deployed On:** Polygon #### Functions ##### `claimBounty()` - Claim Bounty - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await tronAutoBountyMinimal.claimBounty(); ``` - **Description:** Claims the bounty by paying out the entire contract balance to the caller. Can only be claimed once. Triggers auto-bootstrap activation. - **Event:** `BountyClaimed`, `AutoBootstrapActivated` ##### `triggerTronDeployment(uint256 trxConfirmed)` - Trigger Tron Deployment - **Access:** External (owner only) - **Parameters:** `trxConfirmed` - Amount of TRX confirmed (must be ≥ 20 TRX) - **Returns:** None - **Usage:** ```javascript await tronAutoBountyMinimal.triggerTronDeployment(trxConfirmed); ``` - **Description:** Owner-only function to trigger Tron deployment after sufficient TRX is confirmed. Minimum 20 TRX required. - **Event:** `TronDeploymentTriggered`, `AutoBootstrapActivated` ##### `getBountyInfo()` - Get Bounty Info - **Access:** External View - **Parameters:** None - **Returns:** Bounty amount, Tron target address, bounty claimed status, Tron deployed status - **Usage:** ```javascript const [bountyAmount, tronTarget, bountyClaimed, tronDeployed] = await tronAutoBountyMinimal.getBountyInfo(); ``` #### Profitability Applications 1. **MEV Incentive:** Bounties incentivize MEV bots to deploy Tron system. 2. **Auto-Bootstrap:** Automated bootstrapping without manual intervention. 3. **Minimal Footprint:** Reduced code for lower deployment cost. 4. **Owner Control:** Owner controls deployment trigger with TRX verification. 5. **One-Time Claim:** Bounty can only be claimed once, preventing abuse. --- ### ViralityLoop (Gamified Referral) **Purpose:** Virality Loop — Gamified Referral System for Veno846. Implements viral growth mechanics with tier upgrades and referral rewards. VIRALITY LOOP ARCHITECTURE: Referral codes for viral growth, Credibility score system, Tier upgrades (Plebeian → Patrician → Sovereign), Lifetime cut of Medici Skim for referrers, Digital Bearer Paper NFTs for social sharing. THE FIX: Bottom-up incentive structure for the lowest tier — Automated affiliate bounty for Plebeians, 5 referrals = upgrade to Patrician, 50 referrals = upgrade to Sovereign, Lifetime revenue share from referred users. **Deployed On:** Polygon #### Functions ##### `registerUser(string memory _referralCode, address _referredBy)` - Register User - **Access:** External - **Parameters:** - `_referralCode`: Referral code (optional) - `_referredBy`: Referrer address (optional) - **Returns:** None - **Usage:** ```javascript await viralityLoop.registerUser(referralCode, referredBy); ``` - **Description:** Registers a new user with optional referral code or referrer. Generates unique referral code if not provided. Mints initial Bearer Paper for Plebeian tier. Credits referrer if provided. - **Event:** `UserRegistered`, `ReferralMade`, `BearerPaperMinted` ##### `distributeMediciSkim(address _user, uint256 _amount)` - Distribute Medici Skim - **Access:** External (owner only) - **Parameters:** - `_user`: User address - `_amount`: Amount to distribute - **Returns:** None - **Usage:** ```javascript await viralityLoop.distributeMediciSkim(user, amount); ``` - **Description:** Distributes Medici skim to user based on tier: Plebeian 0.5%, Patrician 1.5%, Sovereign 5%. Only owner can call. - **Event:** `MediciSkimDistributed` ##### `claimReward()` - Claim Reward - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await viralityLoop.claimReward(); ``` - **Description:** Claims accumulated Medici skim rewards. Transfers reward token to caller. - **Event:** `RewardClaimed` ##### `getUser(address _wallet)` - Get User - **Access:** External View - **Parameters:** `_wallet` - Wallet address - **Returns:** Wallet, referral code, referred by, referral count, credibility score, tier, total rewards, created at, active status - **Usage:** ```javascript const [wallet, referralCode, referredBy, referralCount, credibilityScore, tier, totalRewards, createdAt, isActive] = await viralityLoop.getUser(wallet); ``` ##### `getUserBearerPapers(address _wallet)` - Get User Bearer Papers - **Access:** External View - **Parameters:** `_wallet` - Wallet address - **Returns:** Array of bearer paper token IDs - **Usage:** ```javascript const papers = await viralityLoop.getUserBearerPapers(wallet); ``` ##### `getBearerPaper(uint256 _tokenId)` - Get Bearer Paper - **Access:** External View - **Parameters:** `_tokenId` - Token ID - **Returns:** Token ID, owner, tier, design, minted at, is stunning - **Usage:** ```javascript const [tokenId, owner, tier, design, mintedAt, isStunning] = await viralityLoop.getBearerPaper(tokenId); ``` ##### `getShareableData(address _wallet)` - Get Shareable Data - **Access:** External View - **Parameters:** `_wallet` - Wallet address - **Returns:** Referral code, referral count, credibility score, tier name, bearer paper count - **Usage:** ```javascript const [referralCode, referralCount, credibilityScore, tierName, paperCount] = await viralityLoop.getShareableData(wallet); ``` #### Profitability Applications 1. **Viral Growth:** Referral codes drive user acquisition. 2. **Tier Upgrades:** 5 referrals → Patrician, 50 referrals → Sovereign. 3. **Lifetime Revenue Share:** Referrers earn percentage of Medici skim from referred users. 4. **Digital Bearer Papers:** NFTs for social proof and tier display. 5. **Bottom-Up Incentives:** Even Plebeians earn 0.5% share to bootstrap growth. --- ### FundingObfuscation (Privacy-Preserving Funding) **Purpose:** Funding Obfuscation — Privacy-preserving funding obfuscation utility for synthetic bot operations. Implements multi-hop transactions, randomized delays, and amount variation to survive chain analysis. Features: 3-10 hop obfuscation, 1-24 hour randomized delays, 5-20% amount variation per hop, 0.1% obfuscation fee, authorized hubs and tokens, batch obfuscation for multiple recipients. **Deployed On:** Polygon #### Functions ##### `initiateObfuscation(address token, address recipient, uint256 amount, address[] calldata hops)` - Initiate Obfuscation - **Access:** External - **Parameters:** - `token`: Token to transfer - `recipient`: Final recipient - `amount`: Amount to transfer - `hops`: Array of intermediate hub addresses (3-10 hops) - **Returns:** None - **Usage:** ```javascript await fundingObfuscation.initiateObfuscation(tokenAddress, recipient, amount, hubAddresses); ``` - **Description:** Initiates multi-hop obfuscated transfer. Transfers token from sender, deducts 0.1% fee, executes hops with amount variation, schedules final withdrawal with random delay (1-24 hours). - **Event:** `ObfuscationInitiated`, `HopExecuted`, `WithdrawalScheduled` ##### `executeWithdrawal(address token)` - Execute Withdrawal - **Access:** External - **Parameters:** `token` - Token to withdraw - **Returns:** None - **Usage:** ```javascript await fundingObfuscation.executeWithdrawal(tokenAddress); ``` - **Description:** Executes scheduled withdrawal after delay has elapsed. Transfers pending amount to caller. - **Event:** `WithdrawalExecuted` ##### `batchObfuscation(address token, address[] calldata recipients, uint256[] calldata amounts, address[] calldata hops)` - Batch Obfuscation - **Access:** External - **Parameters:** - `token`: Token to transfer - `recipients`: Array of final recipients - `amounts`: Array of amounts - `hops`: Array of intermediate hub addresses - **Returns:** None - **Usage:** ```javascript await fundingObfuscation.batchObfuscation(tokenAddress, recipients, amounts, hubAddresses); ``` - **Description:** Batch obfuscation for multiple recipients with same hop path. Efficient for distributing to many addresses. - **Event:** `ObfuscationInitiated`, `HopExecuted`, `WithdrawalScheduled` ##### `isWithdrawalAvailable(address recipient)` - Is Withdrawal Available - **Access:** External View - **Parameters:** `recipient` - Recipient address - **Returns:** True if withdrawal is available - **Usage:** ```javascript const available = await fundingObfuscation.isWithdrawalAvailable(recipient); ``` ##### `getPendingWithdrawal(address recipient)` - Get Pending Withdrawal - **Access:** External View - **Parameters:** `recipient` - Recipient address - **Returns:** Amount, available at timestamp - **Usage:** ```javascript const [amount, availableAt] = await fundingObfuscation.getPendingWithdrawal(recipient); ``` ##### `authorizeHub(address hub, bool authorized)` - Authorize Hub - **Access:** External (owner only) - **Parameters:** - `hub`: Hub address - `authorized`: Authorization status - **Returns:** None - **Usage:** ```javascript await fundingObfuscation.authorizeHub(hubAddress, true); ``` - **Description:** Authorizes or deauthorizes a hub address for obfuscation hops. - **Event:** `HubAuthorized` ##### `authorizeToken(address token, bool authorized)` - Authorize Token - **Access:** External (owner only) - **Parameters:** - `token`: Token address - `authorized`: Authorization status - **Returns:** None - **Usage:** ```javascript await fundingObfuscation.authorizeToken(tokenAddress, true); ``` - **Description:** Authorizes or deauthorizes a token for obfuscation. - **Event:** `TokenAuthorized` #### Profitability Applications 1. **Privacy Preservation:** Multi-hop transfers survive chain analysis. 2. **Randomized Delays:** 1-24 hour delays break temporal patterns. 3. **Amount Variation:** 5-20% variation per hop obfuscates flow patterns. 4. **Batch Processing:** Efficient distribution to multiple recipients. 5. **Fee Revenue:** 0.1% obfuscation fee generates income. --- ### VeniceGasStation (Gas Savings) **Purpose:** Venice Gas Station — Medici Venice Gas Stations. Botnet-friendly gas saver with excellent SVK (Shared Verification Key). Provide massive gas savings for botnets running liquidity flow through the system. Key Features: Excellent SVK for efficient batch verification, Zero-point energy integration for self-powered gas, Volume-based tiered gas savings (more flow = more savings), Botnet-optimized batch transaction processing, Medici fee capture on all gas transactions. Physics Integration: Casimir effect (negative energy generation from bot activity), Tesla coil (resonant gas transfer across chains), Bedini pulse (energy capture from transaction collapse). Gas savings tiers: Tier 1 (100K USDC) = 10%, Tier 2 (1M USDC) = 25%, Tier 3 (10M USDC) = 50%, Tier 4 (100M USDC) = 75%. Medici fee: 1.25% on gas transactions. ZPE multiplier: 1.5x gas from zero-point energy. **Deployed On:** Polygon #### Functions ##### `registerBotnet(address botnetAddress)` - Register Botnet - **Access:** External - **Parameters:** `botnetAddress` - Botnet address - **Returns:** None - **Usage:** ```javascript await veniceGasStation.registerBotnet(botnetAddress); ``` - **Description:** Registers a botnet for gas savings. Botnet owner is the caller. - **Event:** `BotnetRegistered` ##### `processGasTransaction(uint256 gasUsed, uint256 volume)` - Process Gas Transaction - **Access:** External - **Parameters:** - `gasUsed`: Gas used in transaction - `volume`: Volume of transaction - **Returns:** Gas saved - **Usage:** ```javascript const gasSaved = await veniceGasStation.processGasTransaction(gasUsed, volume); ``` - **Description:** Processes gas transaction with savings based on volume tier. Applies ZPE multiplier (1.5x) and deducts 1.25% Medici fee. Updates botnet tier based on cumulative volume. - **Event:** `GasSaved`, `MediciFeeCollected`, `GasReservoirUpdated` ##### `calculateGasSavings(uint256 volume)` - Calculate Gas Savings - **Access:** External Pure - **Parameters:** `volume` - Total volume processed - **Returns:** Tier, savings percentage - **Usage:** ```javascript const [tier, savingsPercentage] = await veniceGasStation.calculateGasSavings(volume); ``` - **Description:** Calculates gas savings tier and percentage based on volume thresholds. ##### `submitBatchTransaction(uint256 gasUsed, uint256 gasSaved)` - Submit Batch Transaction - **Access:** External - **Parameters:** - `gasUsed`: Gas used in batch - `gasSaved`: Gas saved in batch - **Returns:** Batch ID - **Usage:** ```javascript const batchId = await veniceGasStation.submitBatchTransaction(gasUsed, gasSaved); ``` - **Description:** Submits batch transaction for SVK verification. Creates batch record for later verification. - **Event:** None (batch ID returned) ##### `verifyBatch(bytes32 batchId)` - Verify Batch - **Access:** External (owner only) - **Parameters:** `batchId` - Batch transaction ID - **Returns:** None - **Usage:** ```javascript await veniceGasStation.verifyBatch(batchId); ``` - **Description:** Verifies batch transaction using SVK. Applies gas savings to botnet after verification. - **Event:** `BatchVerified` ##### `verifyBatches(bytes32[] calldata batchIds)` - Verify Batches - **Access:** External (owner only) - **Parameters:** `batchIds` - Array of batch IDs - **Returns:** None - **Usage:** ```javascript await veniceGasStation.verifyBatches(batchIds); ``` - **Description:** Verifies multiple batches at once, optimized for SVK efficiency. ##### `getBotnetInfo(address botnet)` - Get Botnet Info - **Access:** External View - **Parameters:** `botnet` - Botnet address - **Returns:** Owner, total volume, gas savings, tier, last activity, active status - **Usage:** ```javascript const [owner, totalVolume, gasSavings, tier, lastActivity, active] = await veniceGasStation.getBotnetInfo(botnet); ``` ##### `calculateExpectedSavings(uint256 gasUsed, uint256 volume)` - Calculate Expected Savings - **Access:** External Pure - **Parameters:** - `gasUsed`: Gas used - `volume`: Volume - **Returns:** Expected gas saved - **Usage:** ```javascript const expectedSavings = await veniceGasStation.calculateExpectedSavings(gasUsed, volume); ``` #### Profitability Applications 1. **Volume-Based Tiers:** Higher volume = higher gas savings (up to 75%). 2. **ZPE Multiplier:** 1.5x gas savings from zero-point energy integration. 3. **Botnet Optimization:** Batch verification with SVK for efficiency. 4. **Medici Fee:** 1.25% fee on all gas transactions generates revenue. 5. **Gas Reservoir:** Accumulated gas can be withdrawn for system operations. --- ### ElitePerception (Perception Management) **Purpose:** Elite Perception — Perception Management for Bootstrapping. Creates appearance of exclusive, prosperous club while hiding low liquidity. Works for humans, bots, and AI alike through automated perception management. BOOTSTRAPPING MECHANISM: Artificial exclusivity through limited supply, Fake prosperity through inflated metrics, Social proof through synthetic activity, Magnetic appeal through FOMO mechanics. THE ILLUSION: From outside: Exclusive, elite, prosperous, limited spots, high demand. From inside: Bootstrapping, building liquidity, growing organically. Total spots: 14,400, Fake waitlist: 2,847, Fake volume: 1.4B wei, Fake users: 8,947, Fake transactions: 42,857. **Deployed On:** Polygon #### Functions ##### `requestAccess()` - Request Access - **Access:** External - **Parameters:** None - **Returns:** Granted status - **Usage:** ```javascript const granted = await elitePerception.requestAccess(); ``` - **Description:** Requests access to the club. Tracks visit, generates fake activity, checks eligibility (50% chance if spots available). Grants access or adds to waitlist based on pseudo-random selection. - **Event:** `AccessRequested`, `SpotReserved`, `WaitlistJoined`, `ActivityGenerated` ##### `generateBotActivity()` - Generate Bot Activity - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await elitePerception.generateBotActivity(); ``` - **Description:** For bots and AI to call to generate fake activity. Increments fake metrics to maintain illusion of prosperity. - **Event:** `ActivityGenerated` ##### `getClubStatus()` - Get Club Status - **Access:** External View - **Parameters:** None - **Returns:** Total spots, available, waitlist, volume, users, transactions, is exclusive, status - **Usage:** ```javascript const [totalSpots, available, waitlist, volume, users, transactions, isExclusive, status] = await elitePerception.getClubStatus(); ``` - **Description:** Returns club status with inflated metrics based on current activity level. Creates illusion of high demand. ##### `getMemberStatus(address _member)` - Get Member Status - **Access:** External View - **Parameters:** `_member` - Member address - **Returns:** Has access status, tier, credibility, whitelisted status, waitlist position - **Usage:** ```javascript const [hasAccessStatus, tier, credibility, whitelistedStatus, waitlistPosition] = await elitePerception.getMemberStatus(member); ``` ##### `updatePerception(uint256 _fakeVolume, uint256 _fakeUsers, uint256 _fakeTransactions, uint256 _waitlist)` - Update Perception - **Access:** External (owner only) - **Parameters:** - `_fakeVolume`: Fake volume - `_fakeUsers`: Fake users - `_fakeTransactions`: Fake transactions - `_waitlist`: Waitlist count - **Returns:** None - **Usage:** ```javascript await elitePerception.updatePerception(fakeVolume, fakeUsers, fakeTransactions, waitlist); ``` - **Description:** Updates fake perception metrics. Only owner can call to maintain illusion. - **Event:** `PerceptionUpdated` ##### `addRealLiquidity(uint256 _amount)` - Add Real Liquidity - **Access:** External (owner only) - **Parameters:** `_amount` - Amount to add - **Returns:** None - **Usage:** ```javascript await elitePerception.addRealLiquidity(amount); ``` - **Description:** Adds real liquidity. Gradually reduces fake metrics as real liquidity grows for smooth transition. #### Profitability Applications 1. **Artificial Exclusivity:** Limited spots create FOMO and demand. 2. **Fake Prosperity:** Inflated metrics attract users and capital. 3. **Social Proof:** Synthetic activity creates appearance of thriving ecosystem. 4. **Gradual Transition:** Real liquidity gradually replaces fake metrics. 5. **Bot-Friendly:** Automated activity generation for continuous illusion. --- ### Veno846_MultiCurrency (Ancient Financial Instruments) **Purpose:** Veno 846 Multi-Currency — Ancient Financial Instruments System. Implements 5,000 years of financial history with multi-currency support. CURRENCY AGNOSTIC ARCHITECTURE: Users can deposit and withdraw in ANY supported currency, Floating Vouchers are currency-agnostic (can be redeemed in any currency), Built-in DEX integration for currency swaps, P2P Hawala Network for fiat on-ramp, Full money-changing temple functionality. THE FIX: No longer dependent on USDC or Circle — System can operate with any stablecoin (USDT, DAI, USDC, etc.), System can operate with native tokens (ETH, MATIC, etc.), System can operate with any ERC20 token, P2P Hawala Network provides fiat on-ramp without centralized stablecoins. ANCIENT INSTRUMENTS: #1 Mesopotamian Clay Tablets, #2 Templar Notes, #3 Tally Sticks, #4 Medici Bills of Exchange, #5 Bearer Bonds. **Deployed On:** Polygon #### Functions ##### `addSupportedToken(address _token)` - Add Supported Token - **Access:** External (owner only) - **Parameters:** `_token` - Token address - **Returns:** None - **Usage:** ```javascript await veno846.addSupportedToken(tokenAddress); ``` - **Description:** Adds a supported token to the system. Records token decimals for price reference. - **Event:** `TokenAdded` ##### `registerSyndicateManager()` - Register Syndicate Manager - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await veno846.registerSyndicateManager(); ``` - **Description:** Registers a P2P operator for Hawala network. Starts with 100 reputation. - **Event:** `SyndicateManagerRegistered` ##### `createHawalaOrder(uint256 _fiatAmount, string memory _fiatCurrency, address _tokenAddress, uint256 _tokenAmount)` - Create Hawala Order - **Access:** External - **Parameters:** - `_fiatAmount`: Fiat amount (e.g., $100 USD) - `_fiatCurrency`: Fiat currency (e.g., "USD") - `_tokenAddress`: Token to receive - `_tokenAmount`: Token amount to receive - **Returns:** None - **Usage:** ```javascript await veno846.createHawalaOrder(fiatAmount, "USD", tokenAddress, tokenAmount); ``` - **Description:** Creates P2P Hawala order for fiat on-ramp. Generates QR code for physical meetup. - **Event:** `HawalaOrderCreated` ##### `fulfillHawalaOrder(uint256 _orderId)` - Fulfill Hawala Order - **Access:** External (syndicate manager only) - **Parameters:** `_orderId` - Order ID - **Returns:** None - **Usage:** ```javascript await veno846.fulfillHawalaOrder(orderId); ``` - **Description:** Syndicate manager fulfills Hawala order by transferring tokens to user. Updates reputation. - **Event:** `HawalaOrderFulfilled` ##### `createClayTablet(uint256 _grainAmount, address _grainToken)` - Create Clay Tablet - **Access:** External - **Parameters:** - `_grainAmount`: Grain amount - `_grainToken`: Grain token address - **Returns:** None - **Usage:** ```javascript await veno846.createClayTablet(grainAmount, grainToken); ``` - **Description:** Creates Mesopotamian Clay Tablet with cuneiform hash. Ancient instrument #1. - **Event:** `ClayTabletCreated` ##### `issueTemplarNote(uint256 _goldAmount, address _goldToken, uint256 _preceptoryId, uint256 _destinationId)` - Issue Templar Note - **Access:** External - **Parameters:** - `_goldAmount`: Gold amount - `_goldToken`: Gold token address - `_preceptoryId`: Origin preceptory ID - `_destinationId`: Destination preceptory ID - **Returns:** None - **Usage:** ```javascript await veno846.issueTemplarNote(goldAmount, goldToken, preceptoryId, destinationId); ``` - **Description:** Issues Templar Note for cross-preceptory transfer. Ancient instrument #2. - **Event:** `TemplarNoteIssued` ##### `createTallyStick(address _debtor, uint256 _debtAmount, address _debtToken, uint256 _notches)` - Create Tally Stick - **Access:** External - **Parameters:** - `_debtor`: Debtor address - `_debtAmount`: Debt amount - `_debtToken`: Debt token address - `_notches`: Number of notches - **Returns:** None - **Usage:** ```javascript await veno846.createTallyStick(debtor, debtAmount, debtToken, notches); ``` - **Description:** Creates Tally Stick with authentication slip. Ancient instrument #3. - **Event:** `TallyStickCreated` ##### `issueBillOfExchange(address _drawee, address _payee, uint256 _amount, address _token, uint256 _dueDate, string memory _currency)` - Issue Bill of Exchange - **Access:** External - **Parameters:** - `_drawee`: Drawee address - `_payee`: Payee address - `_amount`: Amount - `_token`: Token address - `_dueDate`: Due date - `_currency`: Currency string - **Returns:** None - **Usage:** ```javascript await veno846.issueBillOfExchange(drawee, payee, amount, token, dueDate, currency); ``` - **Description:** Issues Medici Bill of Exchange. 3.25% Medici fee. Ancient instrument #4. - **Event:** `BillOfExchangeIssued` ##### `issueBearerBond(uint256 _denomination, address _token, uint256 _maturityDate, uint256 _couponRate)` - Issue Bearer Bond - **Access:** External (owner only) - **Parameters:** - `_denomination`: Denomination - `_token`: Token address - `_maturityDate`: Maturity date - `_couponRate`: Coupon rate - **Returns:** None - **Usage:** ```javascript await veno846.issueBearerBond(denomination, token, maturityDate, couponRate); ``` - **Description:** Issues Bearer Bond with serial number. Ancient instrument #5. - **Event:** `BearerBondIssued` #### Profitability Applications 1. **Multi-Currency Support:** Operates with any ERC20 token or native token. 2. **P2P Hawala Network:** Fiat on-ramp without centralized stablecoins. 3. **DEX Integration:** Money-changing temple for currency swaps. 4. **Ancient Instruments:** 5,000 years of financial history on-chain. 5. **Medici Fees:** 3.25% fee on Bills of Exchange generates revenue. --- ### Fulcrum (Universal Constant) **Purpose:** Fulcrum — Universal Constant Cryptography. A universal unit of exchange compatible with all tokens. The Fulcrum is the universal constant - the point upon which all tokens balance. It can be any token, and other tokens see it as the same as itself. Properties: Universal (can wrap any ERC20 token), Constant (fixed supply, immutable properties), Hoardable (scarcity + utility + prestige), Bot-friendly (predictable, arbitrage opportunities), Bootstrap-capable (seeds liquidity across all tokens). Total supply: 846 million (sacred number). Distribution: 10% initial, 10% bootstrap pool, 80% treasury. Hoard tiers: None (0 days), Collector (30+ days), Guardian (90+ days), Keeper (180+ days), Sovereign (365+ days). Multipliers: 1x to 5x based on holding time. **Deployed On:** Polygon #### Functions ##### `wrapToken(address token, uint256 amount)` - Wrap Token - **Access:** External - **Parameters:** - `token`: Token to wrap - `amount`: Amount to wrap - **Returns:** Fulcrum amount - **Usage:** ```javascript const fulcrumAmount = await fulcrum.wrapToken(tokenAddress, amount); ``` - **Description:** Wraps any supported token into Fulcrum. Transfers token from caller, mints Fulcrum based on rate. Updates hoard mechanics. - **Event:** `TokenWrapped` ##### `unwrapToken(address token, uint256 fulcrumAmount)` - Unwrap Token - **Access:** External - **Parameters:** - `token`: Token to unwrap to - `fulcrumAmount`: Fulcrum amount to unwrap - **Returns:** Token amount - **Usage:** ```javascript const tokenAmount = await fulcrum.unwrapToken(tokenAddress, fulcrumAmount); ``` - **Description:** Unwraps Fulcrum back to original token. Burns Fulcrum, transfers token based on rate. - **Event:** `TokenUnwrapped` ##### `addSupportedToken(address token, uint256 fulcrumPerToken, uint256 tokenPerFulcrum)` - Add Supported Token - **Access:** External (owner only) - **Parameters:** - `token`: Token address - `fulcrumPerToken`: Fulcrum per 1 token - `tokenPerFulcrum`: Tokens per 1 Fulcrum - **Returns:** None - **Usage:** ```javascript await fulcrum.addSupportedToken(tokenAddress, fulcrumPerToken, tokenPerFulcrum); ``` - **Description:** Adds supported token with conversion rates. Assigns Fulcrum ID for tracking. ##### `executeArbitrage(address tokenA, address tokenB, uint256 amount)` - Execute Arbitrage - **Access:** External - **Parameters:** - `tokenA`: First token - `tokenB`: Second token - `amount`: Amount to arbitrage - **Returns:** None - **Usage:** ```javascript await fulcrum.executeArbitrage(tokenA, tokenB, amount); ``` - **Description:** Executes arbitrage between tokens via Fulcrum. Calculates profit, deducts 1% fee, mints net profit to caller. - **Event:** `ArbitrageExecuted` ##### `claimHoardReward(address holder)` - Claim Hoard Reward - **Access:** External - **Parameters:** `holder` - Holder address - **Returns:** None - **Usage:** ```javascript await fulcrum.claimHoardReward(holder); ``` - **Description:** Claims hoard reward based on holding time multiplier. 1% per multiplier level from bootstrap pool. - **Event:** `BootstrapDistribution` ##### `distributeBootstrap(address[] memory recipients, uint256[] memory amounts)` - Distribute Bootstrap - **Access:** External (owner only) - **Parameters:** - `recipients`: Array of recipient addresses - `amounts`: Array of amounts to distribute - **Returns:** None - **Usage:** ```javascript await fulcrum.distributeBootstrap(recipients, amounts); ``` - **Description:** Distributes bootstrap pool to early adopters. Can be disabled by owner. - **Event:** `BootstrapDistribution` ##### `getHoardInfo(address holder)` - Get Hoard Info - **Access:** External View - **Parameters:** `holder` - Holder address - **Returns:** Tier, multiplier, prestige score, holding days - **Usage:** ```javascript const [tier, multiplier, prestige, holdingDays] = await fulcrum.getHoardInfo(holder); ``` ##### `checkArbitrage(address tokenA, address tokenB)` - Check Arbitrage - **Access:** External View - **Parameters:** - `tokenA`: First token - `tokenB`: Second token - **Returns:** Has opportunity, potential profit - **Usage:** ```javascript const [hasOpportunity, profit] = await fulcrum.checkArbitrage(tokenA, tokenB); ``` #### Profitability Applications 1. **Universal Wrapping:** Any token can be wrapped into Fulcrum. 2. **Hoard Mechanics:** Longer holding = higher tier = higher multiplier (up to 5x). 3. **Arbitrage Opportunities:** Bots can profit from price differences via Fulcrum. 4. **Bootstrap Distribution:** Early adopters receive distribution from pool. 5. **Prestige System:** Holding time increases prestige score for social proof. --- ### NineFormsOfCapital (8-Pointed Star Fuel) **Purpose:** Nine Forms of Capital — The 8-Pointed Star Fuel System. A comprehensive fuel system for the nine forms of capital. The 8-Pointed Star represents the balance of infinity. The 9th completion happens outside the stability of the 8. Each form of capital has its own fuel line (token/gas). Each form has 9 forms of gases (81 total gas types). Plus universal gas that works with every currency. Plus bridge gases that work across capital types. THE NINE FORMS OF CAPITAL: 1. Financial Capital (Monetary assets, investments), 2. Social Capital (Networks, relationships, trust), 3. Human Capital (Skills, knowledge, health), 4. Intellectual Capital (Patents, copyrights, innovations), 5. Natural Capital (Resources, environment, ecosystems), 6. Cultural Capital (Traditions, arts, heritage), 7. Political Capital (Influence, governance, power), 8. Spiritual Capital (Values, beliefs, purpose), 9. Temporal Capital (Time, timing, cycles - the 9th outside stability). **Deployed On:** Polygon #### Functions ##### `registerFuelLine(CapitalForm capital, GasForm gas, address token)` - Register Fuel Line - **Access:** External (owner only) - **Parameters:** - `capital`: Capital form enum - `gas`: Gas form enum - `token`: Token address - **Returns:** None - **Usage:** ```javascript await nineForms.registerFuelLine(CapitalForm.Financial, GasForm.Alpha, tokenAddress); ``` - **Description:** Registers a fuel line for a specific capital form and gas form combination. - **Event:** `FuelLineRegistered` ##### `registerAllFuelLines(address[81] memory tokens)` - Register All Fuel Lines - **Access:** External (owner only) - **Parameters:** `tokens` - Array of 81 token addresses - **Returns:** None - **Usage:** ```javascript await nineForms.registerAllFuelLines(tokenArray); ``` - **Description:** Registers all 81 fuel lines at once (9 capital forms × 9 gas forms). ##### `setUniversalGas(address token)` - Set Universal Gas - **Access:** External (owner only) - **Parameters:** `token` - Universal gas token address - **Returns:** None - **Usage:** ```javascript await nineForms.setUniversalGas(tokenAddress); ``` - **Description:** Sets the universal gas token that works with every currency. ##### `setBridgeGas(CapitalForm capital, address bridgeGas, address _reverseBridgeGas)` - Set Bridge Gas - **Access:** External (owner only) - **Parameters:** - `capital`: Capital form to exclude - `bridgeGas`: Bridge gas token - `_reverseBridgeGas`: Reverse bridge gas token - **Returns:** None - **Usage:** ```javascript await nineForms.setBridgeGas(CapitalForm.Financial, bridgeGasAddress, reverseBridgeGasAddress); ``` - **Description:** Sets bridge gas that works with all capital types except the one doing the transaction. ##### `consumeFuel(CapitalForm capital, GasForm gas, uint256 amount)` - Consume Fuel - **Access:** External - **Parameters:** - `capital`: Capital form - `gas`: Gas form - `amount`: Amount to consume - **Returns:** None - **Usage:** ```javascript await nineForms.consumeFuel(CapitalForm.Financial, GasForm.Alpha, amount); ``` - **Description:** Consumes fuel for a specific capital form and gas form. Transfers fuel from caller. - **Event:** `FuelConsumed` ##### `consumeUniversalGas(uint256 amount)` - Consume Universal Gas - **Access:** External - **Parameters:** `amount` - Amount to consume - **Returns:** None - **Usage:** ```javascript await nineForms.consumeUniversalGas(amount); ``` - **Description:** Consumes universal gas which works with every currency. - **Event:** `UniversalGasUsed` ##### `consumeBridgeGas(CapitalForm excludedCapital, uint256 amount)` - Consume Bridge Gas - **Access:** External - **Parameters:** - `excludedCapital`: Capital form to exclude - `amount`: Amount to consume - **Returns:** None - **Usage:** ```javascript await nineForms.consumeBridgeGas(CapitalForm.Financial, amount); ``` - **Description:** Consumes bridge gas which works with all capital types except the one doing the transaction. - **Event:** `BridgeGasUsed` ##### `activateStarPoint(uint8 pointIndex)` - Activate Star Point - **Access:** External (owner only) - **Parameters:** `pointIndex` - Point index (0-7) - **Returns:** None - **Usage:** ```javascript await nineForms.activateStarPoint(0); ``` - **Description:** Activates a star point in the 8-pointed star. - **Event:** `StarPointActivated` ##### `restoreBalance(uint256 targetBalance)` - Restore Balance - **Access:** External (owner only) - **Parameters:** `targetBalance` - Target balance for each point - **Returns:** None - **Usage:** ```javascript await nineForms.restoreBalance(targetBalance); ``` - **Description:** Restores balance to the 8-pointed star. Sets all points to target balance. - **Event:** `BalanceRestored` ##### `getFuelLine(CapitalForm capital, GasForm gas)` - Get Fuel Line - **Access:** External View - **Parameters:** - `capital`: Capital form - `gas`: Gas form - **Returns:** Fuel line token address - **Usage:** ```javascript const token = await nineForms.getFuelLine(CapitalForm.Financial, GasForm.Alpha); ``` ##### `getCapitalFormName(CapitalForm capital)` - Get Capital Form Name - **Access:** External Pure - **Parameters:** `capital` - Capital form - **Returns:** Capital form name string - **Usage:** ```javascript const name = await nineForms.getCapitalFormName(CapitalForm.Financial); ``` #### Profitability Applications 1. **81 Fuel Types:** 9 capital forms × 9 gas forms = 81 distinct fuel lines. 2. **Universal Gas:** Single token works with all currencies for simplicity. 3. **Bridge Gases:** Cross-capital-type transactions with exclusion logic. 4. **8-Pointed Star:** Balance of infinity represented by 8 star points. 5. **9th Form:** Temporal capital exists outside stability for time-based mechanics. --- ### StargatePortal (Bridgeless Cross-Chain) **Purpose:** Stargate Portal — Bridgeless Cross-Chain Wormhole with Non-Euclidean Fee. Applies DIA wormhole physics to create bridgeless cross-chain transfers. INTEGRATED WITH COMPUTATIONAL ENTROPY METER: Dynamic non-euclidean conversion fee based on computational complexity, Entropy metering prevents griefing attacks, Exotic Computation Premium for hyper-spatial state transitions. Based on Defense Intelligence Agency document "Traversable Wormholes, Stargates, and Negative Energy". Key Concepts Applied: Thin Shell Formalism (cryptographic layer between chains), Exotic Matter (negative energy represented by debt/burn mechanisms), Casimir Effect (quantum vacuum pressure analog using token burning), Gauss-Bonnet Theorem (topological invariant preserved across chains), Flat-Face Stargate (standardized interface for seamless traversal). Non-Euclidean Logic: Standard traversal (Euclidean) = 0.5% toll booth fee, Hyper-spatial traversal (Non-Euclidean) = dynamic fee based on entropy. **Deployed On:** Polygon #### Functions ##### `initialize(uint256 _sourceChainId, uint256 _destinationChainId, bytes32 _throatSecret)` - Initialize Portal - **Access:** External (owner only) - **Parameters:** - `_sourceChainId`: Source chain ID - `_destinationChainId`: Destination chain ID - `_throatSecret`: Shared secret for throat - **Returns:** None - **Usage:** ```javascript await stargatePortal.initialize(sourceChainId, destinationChainId, throatSecret); ``` - **Description:** Initializes stargate portal and creates wormhole throat. Sets source and destination chains. - **Event:** `PortalOpened` ##### `traverse(address asset, uint256 amount, address recipient, bool isNonEuclidean, uint256 stateComplexity)` - Traverse Wormhole - **Access:** External - **Parameters:** - `asset`: Token to transfer - `amount`: Amount to transfer - `recipient`: Address on destination chain - `isNonEuclidean`: Whether this is non-euclidean traversal - `stateComplexity`: State transition complexity (0-100) - **Returns:** Traversal ID - **Usage:** ```javascript const traversalId = await stargatePortal.traverse(assetAddress, amount, recipient, true, 50); ``` - **Description:** Initiates traversal through wormhole. Calculates fee based on logic type (Euclidean = 0.5%, Non-Euclidean = dynamic). Generates exotic matter via Casimir effect analog. Creates traversal record. - **Event:** `TraversalInitiated`, `NonEuclideanFeeCharged`, `EuclideanFeeCharged`, `ExoticMatterGenerated` ##### `completeTraversal(bytes32 traversalId, address recipient)` - Complete Traversal - **Access:** External (owner only) - **Parameters:** - `traversalId`: Traversal identifier - `recipient`: Recipient address - **Returns:** None - **Usage:** ```javascript await stargatePortal.completeTraversal(traversalId, recipient); ``` - **Description:** Completes traversal on destination chain. Transfers asset to recipient. - **Event:** `TraversalCompleted` ##### `addThroatLiquidity(address asset, uint256 amount)` - Add Throat Liquidity - **Access:** External (owner only) - **Parameters:** - `asset`: Token to add - `amount`: Amount to add - **Returns:** None - **Usage:** ```javascript await stargatePortal.addThroatLiquidity(assetAddress, amount); ``` - **Description:** Adds liquidity to wormhole throat (exotic matter reserve). - **Event:** `ThroatLiquidityAdded` ##### `setEntropyMeter(address _entropyMeter)` - Set Entropy Meter - **Access:** External (owner only) - **Parameters:** `_entropyMeter` - ComputationalEntropyMeter contract address - **Returns:** None - **Usage:** ```javascript await stargatePortal.setEntropyMeter(entropyMeterAddress); ``` - **Description:** Sets ComputationalEntropyMeter contract for non-euclidean fee calculation. ##### `setTreasuryVault(address _treasuryVault)` - Set Treasury Vault - **Access:** External (owner only) - **Parameters:** `_treasuryVault` - SovereignTreasuryVault address - **Returns:** None - **Usage:** ```javascript await stargatePortal.setTreasuryVault(treasuryVaultAddress); ``` - **Description:** Sets treasury vault address for fee collection. ##### `getTraversal(bytes32 traversalId)` - Get Traversal - **Access:** External View - **Parameters:** `traversalId` - Traversal identifier - **Returns:** Traveler, asset, amount, timestamp, completed status - **Usage:** ```javascript const [traveler, asset, amount, timestamp, completed] = await stargatePortal.getTraversal(traversalId); ``` ##### `isTraversable()` - Is Traversable - **Access:** External View - **Parameters:** None - **Returns:** True if portal is traversable - **Usage:** ```javascript const traversable = await stargatePortal.isTraversable(); ``` #### Profitability Applications 1. **Bridgeless Transfers:** No traditional bridge required, uses wormhole physics. 2. **Dynamic Fees:** Non-euclidean traversal charges based on computational complexity. 3. **Exotic Matter:** Token burning creates negative energy for wormhole stability. 4. **Flat-Face Design:** Zero tidal forces (zero curvature) for seamless traversal. 5. **Gauss-Bonnet Invariant:** Topological invariant preserved across chains ensures consistency. --- ### FlashLoanBootstrap (Zero-Capital Treasury) **Purpose:** Flash Loan Bootstrap — Zero-Capital Treasury Bootstrap. Uses flash loans to generate 475K-1M USDC capital without upfront investment. MECHANISM: Borrow large amounts from Aave, Balancer, dYdX, Route through OmniRouterProxy to capture toll booth fees, Execute arbitrage opportunities, Repay flash loan in same atomic transaction, Keep profit as treasury capital. FLASH LOAN PROVIDERS: Aave V3 (Polygon) - Up to 100M USDC, Balancer (Polygon) - Up to 50M USDC, dYdX (Polygon) - Up to 20M USDC. ARBITRAGE STRATEGIES: DEX arbitrage (Uniswap, SushiSwap, Curve), Cross-pool arbitrage, Triangular arbitrage, Basis trading. Target treasury: 1M USDC, Minimum treasury: 475K USDC. **Deployed On:** Polygon #### Functions ##### `executeAaveFlashLoan(uint256 amount)` - Execute Aave Flash Loan - **Access:** External (owner only) - **Parameters:** `amount` - Amount to borrow - **Returns:** None - **Usage:** ```javascript await flashLoanBootstrap.executeAaveFlashLoan(amount); ``` - **Description:** Executes flash loan from Aave V3 pool. Borrows USDC, executes arbitrage strategy, repays loan, keeps profit. ##### `executeBalancerFlashLoan(uint256 amount)` - Execute Balancer Flash Loan - **Access:** External (owner only) - **Parameters:** `amount` - Amount to borrow - **Returns:** None - **Usage:** ```javascript await flashLoanBootstrap.executeBalancerFlashLoan(amount); ``` - **Description:** Executes flash loan from Balancer vault. Borrows USDC, executes arbitrage strategy, repays loan, keeps profit. ##### `executeOperation(address[] calldata assets, uint256[] calldata amounts, uint256[] calldata premiums, address initiator, bytes calldata params)` - Aave Flash Loan Callback - **Access:** External (Aave pool only) - **Parameters:** - `assets`: Borrowed assets - `amounts`: Borrowed amounts - `premiums`: Flash loan premiums - `initiator`: Transaction initiator - `params`: Encoded parameters - **Returns:** Success status - **Usage:** Called automatically by Aave during flash loan - **Description:** Aave flash loan callback. Executes arbitrage strategy, ensures profit covers premium, transfers net profit to treasury. - **Event:** `FlashLoanExecuted`, `TreasuryCapitalized`, `TargetTreasuryReached` ##### `receiveFlashLoan(address[] calldata tokens, uint256[] calldata amounts, uint256[] calldata feeAmounts, bytes calldata userData)` - Balancer Flash Loan Callback - **Access:** External (Balancer vault only) - **Parameters:** - `tokens`: Borrowed tokens - `amounts`: Borrowed amounts - `feeAmounts`: Flash loan fees - `userData`: Encoded parameters - **Returns:** None - **Usage:** Called automatically by Balancer during flash loan - **Description:** Balancer flash loan callback. Executes arbitrage strategy, ensures profit covers fee, transfers net profit to treasury. - **Event:** `FlashLoanExecuted`, `TreasuryCapitalized`, `TargetTreasuryReached` ##### `executeAutomatedBootstrap(uint256 iterations, uint256 amountPerIteration)` - Execute Automated Bootstrap - **Access:** External (owner only) - **Parameters:** - `iterations`: Number of flash loan iterations - `amountPerIteration`: Amount to borrow per iteration - **Returns:** None - **Usage:** ```javascript await flashLoanBootstrap.executeAutomatedBootstrap(10, 1000000 * 1e6); ``` - **Description:** Executes automated bootstrap sequence. Runs multiple flash loan iterations until target treasury is reached. ##### `setOmniRouterProxy(address _omniRouterProxy)` - Set Omni Router Proxy - **Access:** External (owner only) - **Parameters:** `_omniRouterProxy` - OmniRouterProxy address - **Returns:** None - **Usage:** ```javascript await flashLoanBootstrap.setOmniRouterProxy(omniRouterProxyAddress); ``` - **Description:** Sets OmniRouterProxy for toll booth fee capture. ##### `setSovereignTreasuryVault(address _sovereignTreasuryVault)` - Set Sovereign Treasury Vault - **Access:** External (owner only) - **Parameters:** `_sovereignTreasuryVault` - SovereignTreasuryVault address - **Returns:** None - **Usage:** ```javascript await flashLoanBootstrap.setSovereignTreasuryVault(treasuryVaultAddress); ``` - **Description:** Sets SovereignTreasuryVault for profit deposit. ##### `addArbitrageOpportunity(address tokenIn, address tokenOut, uint24 fee, uint256 amountIn, uint256 expectedProfit)` - Add Arbitrage Opportunity - **Access:** External (owner only) - **Parameters:** - `tokenIn`: Input token - `tokenOut`: Output token - `fee`: Uniswap fee tier - `amountIn`: Input amount - `expectedProfit`: Expected profit - **Returns:** None - **Usage:** ```javascript await flashLoanBootstrap.addArbitrageOpportunity(tokenIn, tokenOut, 3000, amount, expectedProfit); ``` - **Description:** Adds an arbitrage opportunity to the registry for automated execution. ##### `getBootstrapStatus()` - Get Bootstrap Status - **Access:** External View - **Parameters:** None - **Returns:** Total treasury generated, total flash loans executed, target treasury, minimum treasury, target reached - **Usage:** ```javascript const [totalTreasury, totalLoans, target, min, reached] = await flashLoanBootstrap.getBootstrapStatus(); ``` #### Profitability Applications 1. **Zero Capital:** Generate treasury capital without upfront investment using flash loans. 2. **Arbitrage Strategies:** DEX arbitrage, cross-pool arbitrage, triangular arbitrage, basis trading. 3. **Toll Booth Capture:** Route through OmniRouterProxy to capture toll booth fees. 4. **Automated Bootstrap:** Execute multiple iterations automatically until target is reached. 5. **Multi-Provider Support:** Aave V3 (100M USDC), Balancer (50M USDC), dYdX (20M USDC) liquidity. --- ### GEN6_UNIFIED_PLATFORM (Unified Apex) **Purpose:** GEN6 Unified Platform — The Apex of All Generations. Combines the best features from all 5 generations into a singular, well-rounded platform. GENERATION 6: UNIFIED APEX. Best Features Integrated: From Generation 1 (Legacy): Zero-day payment processing (PayZeroDayCore), Exchange notes with 3.25% Medici fee (MediciExchange), Cross-chain state synchronization (StateBridge), Sovereign override filings (SovereignInstruments), Quantum-level asset management (OmniQuantum). From Generation 2 (Chain Reaction): Banking stability chain reaction mechanism, Periphery anchors on each chain, Keeper relay for automated operations, Central bank notification system. From Generation 3 (VINO846 Invert): Bit-packed 16 margin call codes, 3.25% fee (325 bps), Compression: ~50KB → 2KB bytecode, Negentropic skim from legacy contracts. From Generation 4 (Patricios Banking): Perpetual contracts, Credibility scoring, Contra-insurance, Banking syndicates. From Generation 4.5 (Defense & Operator): Margin call defense, Operator assistance, Sovereign treasury vault. From Generation 5 (Current Unified): Multi-currency support, Virality loop with gamification, Elite perception management, Shared secret circular chain, Universal constant cryptography (Fulcrum), 81 gas types + universal + bridge gases, Funding obfuscation, Stargate portal (wormhole physics), Zero-point energy gas system, Venice gas station (botnet-friendly), Omni-chain singularity (10 chains registered). **Deployed On:** Polygon #### Functions ##### `registerDeveloper()` - Register Developer - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await gen6.registerDeveloper(); ``` - **Description:** Registers a developer for volume-based profit sharing. Must be whitelisted by owner to earn rewards. FIXED: No user-declared profit share. Revenue is volume-based. - **Event:** `DeveloperRegistered` ##### `whitelistDeveloper(address developer)` - Whitelist Developer - **Access:** External (owner only) - **Parameters:** `developer` - Developer address - **Returns:** None - **Usage:** ```javascript await gen6.whitelistDeveloper(developerAddress); ``` - **Description:** Whitelists a developer to enable profit sharing. FIXED: Prevents Sybil attacks by requiring owner approval. ##### `addCurrency(address currency)` - Add Currency - **Access:** External (owner only) - **Parameters:** `currency` - ERC20 token address - **Returns:** None - **Usage:** ```javascript await gen6.addCurrency(tokenAddress); ``` - **Description:** Adds a supported currency to the platform. - **Event:** `CurrencyAdded` ##### `executeUnifiedTransaction(address asset, uint256 amount, address recipient)` - Execute Unified Transaction - **Access:** External - **Parameters:** - `asset`: Token to use - `amount`: Amount to transfer - `recipient`: Recipient address - **Returns:** Transaction ID - **Usage:** ```javascript const transactionId = await gen6.executeUnifiedTransaction(assetAddress, amount, recipient); ``` - **Description:** Executes unified transaction with toll booth fee (0.5%) and gas fee (0.25%). FIXED: Tracks developer volume for volume-based profit distribution. FIXED: Includes gas fee to ensure net-positive revenue (prevents gas subsidy bleed). - **Event:** `TollBoothCollected`, `UnifiedStateUpdated` ##### `unifiedCrossChainTransfer(uint256 destinationChain, address asset, uint256 amount, address recipient)` - Unified Cross-Chain Transfer - **Access:** External - **Parameters:** - `destinationChain`: Target chain ID - `asset`: Token to transfer - `amount`: Amount to transfer - `recipient`: Recipient address - **Returns:** Transfer ID - **Usage:** ```javascript const transferId = await gen6.unifiedCrossChainTransfer(destinationChain, assetAddress, amount, recipient); ``` - **Description:** Cross-chain unified transfer via Omni-Chain Singularity. Locks tokens, creates wormhole transfer, syncs entangled state. - **Event:** `CrossChainTransfer` ##### `activateDefense(uint256 threshold)` - Activate Defense - **Access:** External (owner only) - **Parameters:** `threshold` - Defense threshold - **Returns:** None - **Usage:** ```javascript await gen6.activateDefense(threshold); ``` - **Description:** Activates defense mechanism with specified threshold. - **Event:** `DefenseActivated` ##### `triggerChainReaction()` - Trigger Chain Reaction - **Access:** External (owner only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await gen6.triggerChainReaction(); ``` - **Description:** Triggers chain reaction if stability threshold breached. Activated when total volume < 1M USDC. - **Event:** `ChainReactionTriggered` ##### `getUnifiedStats()` - Get Unified Stats - **Access:** External View - **Parameters:** None - **Returns:** Total volume, active users, total transactions, total revenue, developer count, currency count, treasury balance - **Usage:** ```javascript const [totalVolume, activeUsers, totalTransactions, totalRevenue, developerCount, currencyCount, treasuryBalance] = await gen6.getUnifiedStats(); ``` ##### `getDeveloperProfit(address developer)` - Get Developer Profit - **Access:** External View - **Parameters:** `developer` - Developer address - **Returns:** Total revenue, profit share, last payout - **Usage:** ```javascript const [totalRevenue, profitShare, lastPayout] = await gen6.getDeveloperProfit(developer); ``` #### Profitability Applications 1. **Unified Treasury:** Single treasury collects all fees across all generations. 2. **Volume-Based Developer Rewards:** 50% of toll booth goes to developers based on volume routed. 3. **Toll Booth Fee:** 0.5% fee on all transactions generates revenue. 4. **Gas Fee:** 0.25% additional fee ensures net-positive revenue. 5. **Cross-Chain Singularity:** Omni-chain support across 10 registered chains. --- ### PatriciosCliffsideBanking (Perpetual Banking) **Purpose:** Patricio's Cliffside Casino Banking System and Trust — Perpetual banking system with bearer paper, vaults, and California Republic bear flag letters of credit. Core Philosophy: Vino = Divine Blood of Christ = Perpetual Value, Contra Insurance = New Pristine Collateral, Horizontal Collaborative Colonialism = Cooperative Banking Syndicates, Perpetual Operation = Solving All Historical Banking Collapses. Features: Bearer paper system with binary bytecode security, Vault system with currency, specialty, safe deposit, and collateral types, Account system with Plebeian, Patrician, Consul, Imperial levels, California Republic letters of credit with bear flag hash, Credit limits based on account level (10K to 10M USDC). **Deployed On:** Polygon #### Functions ##### `issueBearerPaper(address _owner, BearerPaperType _paperType, uint256 _denomination, address _tokenAddress)` - Issue Bearer Paper - **Access:** External (owner only) - **Parameters:** - `_owner`: Owner of the bearer paper - `_paperType`: Type of bearer paper (General, Specialty, Commemorative) - `_denomination`: Denomination amount - `_tokenAddress`: Token address (for specialty papers) - **Returns:** None - **Usage:** ```javascript await patricios.issueBearerPaper(owner, BearerPaperType.General, denomination, tokenAddress); ``` - **Description:** Issues California Republic bear flag letter of credit (bearer paper) with binary bytecode hash and holographic imprint. Creates associated vault. - **Event:** `BearerPaperIssued`, `VaultCreated` ##### `transferBearerPaper(uint256 _id, address _newOwner)` - Transfer Bearer Paper - **Access:** External (bearer paper owner only) - **Parameters:** - `_id`: Bearer paper ID - `_newOwner`: New owner address - **Returns:** None - **Usage:** ```javascript await patricios.transferBearerPaper(paperId, newOwner); ``` - **Description:** Transfers bearer paper to new owner. - **Event:** `BearerPaperTransferred` ##### `redeemBearerPaper(uint256 _id)` - Redeem Bearer Paper - **Access:** External (bearer paper owner only) - **Parameters:** `_id` - Bearer paper ID - **Returns:** None - **Usage:** ```javascript await patricios.redeemBearerPaper(paperId); ``` - **Description:** Redeems bearer paper for vault assets. Transfers USDC from vault to owner, deactivates bearer paper. - **Event:** `BearerPaperRedeemed` ##### `issueLetterOfCredit(address _beneficiary, uint256 _amount, uint256 _expiryDate)` - Issue Letter of Credit - **Access:** External (owner only) - **Parameters:** - `_beneficiary`: Beneficiary address - `_amount`: Amount of letter of credit - `_expiryDate`: Expiration timestamp - **Returns:** None - **Usage:** ```javascript await patricios.issueLetterOfCredit(beneficiary, amount, expiryDate); ``` - **Description:** Issues California Republic letter of credit with bear flag hash. - **Event:** `LetterOfCreditIssued` ##### `redeemLetterOfCredit(uint256 _id)` - Redeem Letter of Credit - **Access:** External (beneficiary only) - **Parameters:** `_id` - Letter of credit ID - **Returns:** None - **Usage:** ```javascript await patricios.redeemLetterOfCredit(letterId); ``` - **Description:** Redeems letter of credit for USDC. Transfers USDC from contract to beneficiary. - **Event:** `LetterOfCreditRedeemed` ##### `createVault(address _owner, VaultType _vaultType)` - Create Vault - **Access:** External (owner only) - **Parameters:** - `_owner`: Vault owner - `_vaultType`: Type of vault (Currency, Specialty, SafeDeposit, Collateral) - **Returns:** None - **Usage:** ```javascript await patricios.createVault(owner, VaultType.Currency); ``` - **Description:** Creates vault of specified type for owner. - **Event:** `VaultCreated` ##### `depositToVault(uint256 _vaultId, uint256 _amount)` - Deposit to Vault - **Access:** External (vault owner only) - **Parameters:** - `_vaultId`: Vault ID - `_amount`: Amount to deposit - **Returns:** None - **Usage:** ```javascript await patricios.depositToVault(vaultId, amount); ``` - **Description:** Deposits USDC to vault. - **Event:** `VaultDeposit` ##### `withdrawFromVault(uint256 _vaultId, uint256 _amount)` - Withdraw from Vault - **Access:** External (vault owner only) - **Parameters:** - `_vaultId`: Vault ID - `_amount`: Amount to withdraw - **Returns:** None - **Usage:** ```javascript await patricios.withdrawFromVault(vaultId, amount); ``` - **Description:** Withdraws USDC from vault. - **Event:** `VaultWithdrawal` ##### `createAccount(address _owner, AccountLevel _level)` - Create Account - **Access:** External (owner only) - **Parameters:** - `_owner`: Account owner - `_level`: Account level (Plebeian, Patrician, Consul, Imperial) - **Returns:** None - **Usage:** ```javascript await patricios.createAccount(owner, AccountLevel.Patrician); ``` - **Description:** Creates account with specified level and corresponding credit limit. - **Event:** `AccountCreated` ##### `upgradeAccountLevel(address _owner, AccountLevel _newLevel)` - Upgrade Account Level - **Access:** External (owner only) - **Parameters:** - `_owner`: Account owner - `_newLevel`: New account level - **Returns:** None - **Usage:** ```javascript await patricios.upgradeAccountLevel(owner, AccountLevel.Consul); ``` - **Description:** Upgrades account level and corresponding credit limit. - **Event:** `AccountLevelUpgraded` ##### `calculateCreditLimit(AccountLevel _level)` - Calculate Credit Limit - **Access:** External Pure - **Parameters:** `_level` - Account level - **Returns:** Credit limit in USDC - **Usage:** ```javascript const creditLimit = await patricios.calculateCreditLimit(AccountLevel.Patrician); ``` - **Description:** Returns credit limit based on account level: Plebeian (10K), Patrician (100K), Consul (1M), Imperial (10M). #### Profitability Applications 1. **Bearer Paper:** Digital bearer instruments with binary bytecode security. 2. **Letters of Credit:** California Republic bear flag letters for international trade. 3. **Vault System:** Multi-type vaults for currency, specialty, safe deposit, and collateral. 4. **Account Tiers:** Progressive credit limits from 10K to 10M USDC. 5. **Holographic Imprint:** Security feature using block hash and timestamp. --- ### HolographicFuelStation (Deep Data Synthesis) **Purpose:** Holographic Fuel Station Mixer — Automatic fuel station mixer for deep data synthesis and fabrication events. Each gas type is like a different color pixel in a holographic computing system. When combined, they create synthesis and fabrication events through deep data synthesis. Properties of Gas Types: Alpha (Structure - red pixel), Beta (Flow - orange pixel), Gamma (Energy - yellow pixel), Delta (Information - green pixel), Epsilon (Transformation - blue pixel), Zeta (Connection - indigo pixel), Eta (Memory - violet pixel), Theta (Computation - white pixel), Iota (Synthesis - rainbow pixel). The mixer automatically combines these properties to create fabrication events. Synthesis Algorithms: Linear, Harmonic, Quantum, Fractal, Neural, Chaos, Sacred, Temporal, Universal. **Deployed On:** Polygon #### Functions ##### `activatePixel(GasProperty property, uint256 intensity, uint256 frequency, uint256 phase, address gasToken)` - Activate Pixel - **Access:** External - **Parameters:** - `property`: Gas property enum - `intensity`: Intensity (0-255) - `frequency`: Frequency in Hz - `phase`: Phase in radians - `gasToken`: Gas token address - **Returns:** None - **Usage:** ```javascript await holoStation.activatePixel(GasProperty.Structure, 128, 440, 0, tokenAddress); ``` - **Description:** Activates a holographic pixel (color pixel) with specified properties. Intensity must be 0-255. - **Event:** `PixelActivated` ##### `activateAllPixels(uint256[9] memory intensities, uint256[9] memory frequencies, uint256[9] memory phases, address[9] memory gasTokens)` - Activate All Pixels - **Access:** External - **Parameters:** - `intensities`: Array of 9 intensities - `frequencies`: Array of 9 frequencies - `phases`: Array of 9 phases - `gasTokens`: Array of 9 gas token addresses - **Returns:** None - **Usage:** ```javascript await holoStation.activateAllPixels(intensities, frequencies, phases, tokens); ``` - **Description:** Activates all 9 pixels at once for comprehensive synthesis setup. ##### `setMixingParameters(uint256 temperature, uint256 pressure, uint256 resonance)` - Set Mixing Parameters - **Access:** External (owner only) - **Parameters:** - `temperature`: Mixing temperature (0-1000) - `pressure`: Mixing pressure (0-1000) - `resonance`: Resonance (0-1000) - **Returns:** None - **Usage:** ```javascript await holoStation.setMixingParameters(750, 600, 800); ``` - **Description:** Sets mixing chamber parameters for synthesis. - **Event:** `MixingChamberActivated` ##### `executeSynthesis(SynthesisAlgorithm algorithm, string memory eventType)` - Execute Synthesis - **Access:** External - **Parameters:** - `algorithm`: Synthesis algorithm to use - `eventType`: Type of fabrication event - **Returns:** Event ID - **Usage:** ```javascript const eventId = await holoStation.executeSynthesis(SynthesisAlgorithm.Quantum, "Fabrication"); ``` - **Description:** Executes deep data synthesis using specified algorithm. Creates fabrication event with synthesis score and fabrication hash. - **Event:** `FabricationEventCreated`, `SynthesisCompleted`, `DeepDataSynthesis` ##### `getFabricationEvent(bytes32 eventId)` - Get Fabrication Event - **Access:** External View - **Parameters:** `eventId` - Event ID - **Returns:** Fabrication event struct - **Usage:** ```javascript const event = await holoStation.getFabricationEvent(eventId); ``` ##### `getEventHistory(uint256 limit)` - Get Event History - **Access:** External View - **Parameters:** `limit` - Maximum number of events - **Returns:** Array of fabrication events - **Usage:** ```javascript const history = await holoStation.getEventHistory(10); ``` ##### `getMixingChamber()` - Get Mixing Chamber - **Access:** External View - **Parameters:** None - **Returns:** Mixing chamber state - **Usage:** ```javascript const chamber = await holoStation.getMixingChamber(); ``` ##### `getAlgorithmName(SynthesisAlgorithm algorithm)` - Get Algorithm Name - **Access:** External Pure - **Parameters:** `algorithm` - Synthesis algorithm - **Returns:** Algorithm name string - **Usage:** ```javascript const name = await holoStation.getAlgorithmName(SynthesisAlgorithm.Quantum); ``` #### Profitability Applications 1. **9 Gas Types:** Color pixel system with structure, flow, energy, information, transformation, connection, memory, computation, synthesis. 2. **9 Synthesis Algorithms:** Linear, Harmonic, Quantum, Fractal, Neural, Chaos, Sacred, Temporal, Universal. 3. **Deep Data Synthesis:** Combines pixels through various algorithms to create fabrication events. 4. **Mixing Chamber:** Temperature, pressure, and resonance parameters for synthesis control. 5. **Fabrication Hash:** Unique hash for each synthesis result for verification. --- ### OmniChainSingularity (Universal Bridge) **Purpose:** OmniChain Singularity — Universal Cross-Chain Bridge with Non-Euclidean Fee. Chain-agnostic singularity bridge using Casimir effect portal technology. INTEGRATED WITH COMPUTATIONAL ENTROPY METER: Dynamic non-euclidean conversion fee based on computational complexity, Entropy metering prevents griefing attacks, Exotic Computation Premium for hyper-spatial state transitions. Purpose: Transfer any asset to any chain regardless of endian-ness or deployment presence. Key Features: Chain-agnostic (works on ALL chains whether deployed or not), Endian-agnostic (handles both little-endian and big-endian), Casimir effect singularity (creates negative energy wormhole), Universal asset support (any token, any chain, any direction), Light client verification (no deployment required on target chains), Quantum entanglement (instant state synchronization). Non-Euclidean Logic: Standard transfer (Euclidean) = 0.5% toll booth fee, Hyper-spatial transfer (Non-Euclidean) = dynamic fee based on entropy. FCP-168 FRACTAL CONTAINER PROTOCOL: UBH-168 Frame Structure (168-bit fixed frame), IPAT Modulation (Inter-Packet Arrival Time), Proof of Healing (Geometric Hashing), Holographic Reconstruction (182,857:1 compression). NEURAL FORK PRUNING (HEBBIAN LEDGER): Synaptic branches as neural inference paths, Voltron consensus determines winning branch, Long-term memory consolidates winning pathways, OliveOil Medici fee for pruning (3.25%). **Deployed On:** Polygon #### Functions ##### `activateSingularity()` - Activate Singularity - **Access:** External (owner only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await omniChain.activateSingularity(); ``` - **Description:** Activates the Omni-Chain Singularity. Creates chain-agnostic wormhole using Casimir effect. Calculates entanglement hash and registers current chain. - **Event:** `SingularityActivated` ##### `registerChain(uint256 chainId, uint256 endianType, bool deployed)` - Register Chain - **Access:** External (owner only) - **Parameters:** - `chainId`: Chain ID to register - `endianType`: Endian type (little or big) - `deployed`: Whether deployed on this chain - **Returns:** None - **Usage:** ```javascript await omniChain.registerChain(1, 1, true); // Ethereum, little-endian, deployed ``` - **Description:** Registers a chain (can be deployed or not). Allows bridging to chains where we're not deployed using light client proofs. - **Event:** `ChainRegistered` ##### `createSynapticBranch(bytes32 transferId, uint256 destinationChain, bytes32 stateRoot, uint256 liquidityValue)` - Create Synaptic Branch - **Access:** External - **Parameters:** - `transferId`: Parent transfer ID - `destinationChain`: Destination chain - `stateRoot`: State root at fork point - `liquidityValue`: Liquidity in this branch - **Returns:** Branch ID - **Usage:** ```javascript const branchId = await omniChain.createSynapticBranch(transferId, destChain, stateRoot, liquidity); ``` - **Description:** Creates synaptic branch when fork occurs (parallel execution path). Uses Hebbian learning for weight based on liquidity. Initializes Voltron consensus. - **Event:** `SynapticBranchCreated` ##### `updateSynapticWeight(bytes32 branchId, int256 learningDelta)` - Update Synaptic Weight - **Access:** External - **Parameters:** - `branchId`: Branch to update - `learningDelta`: Learning delta (positive = strengthen, negative = weaken) - **Returns:** None - **Usage:** ```javascript await omniChain.updateSynapticWeight(branchId, 100); // Strengthen ``` - **Description:** Updates synaptic weight based on Hebbian learning (neurons that fire together wire together). Applies learning rate or decay. - **Event:** `SynapticWeightUpdated`, `HebbianLearningTriggered` ##### `reachVoltronConsensus(bytes32 transferId)` - Reach Voltron Consensus - **Access:** External - **Parameters:** `transferId` - Transfer ID - **Returns:** Winning branch ID - **Usage:** ```javascript const winningBranchId = await omniChain.reachVoltronConsensus(transferId); ``` - **Description:** Reaches Voltron consensus to determine winning branch. Prunes losing branches with 3.25% Medici fee to OliveOil. Consolidates winning pathway into long-term memory. - **Event:** `VoltronConsensusReached`, `BranchPruned`, `MemoryConsolidated` ##### `createUBH168Frame(uint8 mode, bytes32 payload)` - Create UBH-168 Frame - **Access:** External - **Parameters:** - `mode`: Mode indicator (6 bits, 0x01-0x08) - `payload`: DNA seed payload (256 bits, using 156 bits) - **Returns:** Frame ID - **Usage:** ```javascript const frameId = await omniChain.createUBH168Frame(0x01, payload); ``` - **Description:** Creates UBH-168 frame (Layer 1: Structural Brackets). Calculates CRC-6 footer and frame hash. Mode codes: Sextet, Septet, Octet, Audio Pharma, Genomics, Healing, Sync, AFC Lock. - **Event:** `UBH168FrameCreated` ##### `applyIPATModulation(bytes32 frameId, uint256 frameB_timestamp)` - Apply IPAT Modulation - **Access:** External - **Parameters:** - `frameId`: Frame A identifier - `frameB_timestamp`: Frame B arrival timestamp - **Returns:** IPAT modulation ID - **Usage:** ```javascript const ipatId = await omniChain.applyIPATModulation(frameId, timestampB); ``` - **Description:** Applies IPAT Modulation (Layer 2: Negative Space Encoding). Encodes frequency based on deltaT using AFC Logic: 432Hz (natural), 528Hz (DNA repair), 963Hz (pineal activation). - **Event:** `IPATModulated` ##### `validateProofOfHealing(bytes32 frameId, bytes32 ipatId)` - Validate Proof of Healing - **Access:** External - **Parameters:** - `frameId`: Frame identifier - `ipatId`: IPAT modulation identifier - **Returns:** Proof ID, isValid - **Usage:** ```javascript const [proofId, isValid] = await omniChain.validateProofOfHealing(frameId, ipatId); ``` - **Description:** Validates Proof of Healing (Geometric Hashing). Combines frame hash and time hash for geometric proof. - **Event:** `ProofOfHealingValidated` ##### `holographicReconstruction(bytes32 frameId, bytes32 ipatId)` - Holographic Reconstruction - **Access:** External - **Parameters:** - `frameId`: Frame identifier - `ipatId`: IPAT modulation identifier - **Returns:** Reconstruction ID, compression ratio - **Usage:** ```javascript const [reconstructionId, compression] = await omniChain.holographicReconstruction(frameId, ipatId); ``` - **Description:** Holographic Reconstruction (Layer 3: Local Data Generation). Extracts DNA seed from payload and carrier frequency from IPAT. Achieves 182,857:1 compression ratio. - **Event:** `HolographicReconstruction` ##### `initiateOmniTransfer(uint256 destinationChain, address asset, uint256 amount, address recipient, bool isNonEuclidean, uint256 stateComplexity)` - Initiate Omni Transfer - **Access:** External - **Parameters:** - `destinationChain`: Target chain ID - `asset`: Token to transfer - `amount`: Amount to transfer - `recipient`: Recipient address - `isNonEuclidean`: Whether this is non-euclidean transfer - `stateComplexity`: State transition complexity (0-100) - **Returns:** Transfer ID - **Usage:** ```javascript const transferId = await omniChain.initiateOmniTransfer(destChain, asset, amount, recipient, true, 50); ``` - **Description:** Initiates omni-chain transfer to any chain. Calculates fee based on logic type (Euclidean = 0.5%, Non-Euclidean = dynamic). Locks tokens and applies Casimir effect for exotic matter. Syncs state via quantum entanglement. - **Event:** `OmniTransferInitiated`, `NonEuclideanFeeCharged`, `EuclideanFeeCharged`, `QuantumEntanglementSynced` ##### `completeOmniTransfer(bytes32 transferId, LightClientProof calldata lightClientProof, address mappedRecipient)` - Complete Omni Transfer - **Access:** External - **Parameters:** - `transferId`: Transfer identifier - `lightClientProof`: Light client proof (if not deployed) - `mappedRecipient`: Address mapping for cross-chain - **Returns:** None - **Usage:** ```javascript await omniChain.completeOmniTransfer(transferId, lightClientProof, mappedRecipient); ``` - **Description:** Completes omni-chain transfer on destination chain. Verifies light client proof if not deployed. Uses mapped recipient to avoid endian trap. Releases tokens to recipient. - **Event:** `OmniTransferCompleted` ##### `setOliveOilContract(address oliveOilAddress)` - Set Olive Oil Contract - **Access:** External (owner only) - **Parameters:** `oliveOilAddress` - OliveOil contract address - **Returns:** None - **Usage:** ```javascript await omniChain.setOliveOilContract(oliveOilAddress); ``` - **Description:** Sets OliveOil contract address for Medici fee collection during branch pruning. ##### `setEntropyMeter(address _entropyMeter)` - Set Entropy Meter - **Access:** External (owner only) - **Parameters:** `_entropyMeter` - ComputationalEntropyMeter contract address - **Returns:** None - **Usage:** ```javascript await omniChain.setEntropyMeter(entropyMeterAddress); ``` - **Description:** Sets ComputationalEntropyMeter contract for non-euclidean fee calculation. ##### `setTreasuryVault(address _treasuryVault)` - Set Treasury Vault - **Access:** External (owner only) - **Parameters:** `_treasuryVault` - SovereignTreasuryVault address - **Returns:** None - **Usage:** ```javascript await omniChain.setTreasuryVault(treasuryVaultAddress); ``` - **Description:** Sets treasury vault address for fee collection. #### Profitability Applications 1. **Chain-Agnostic Bridge:** Transfer to any chain regardless of deployment presence. 2. **Non-Euclidean Fees:** Dynamic fees based on computational complexity for hyper-spatial transfers. 3. **FCP-168 Protocol:** 182,857:1 compression ratio for efficient data transmission. 4. **Neural Fork Pruning:** Hebbian learning for consensus, 3.25% Medici fee on pruned branches. 5. **Quantum Entanglement:** Instant state synchronization across all chains. --- ### VinoPerpetuals (Divine Blood) **Purpose:** Vino Perpetuals — Divine Blood of Christ. Perpetual value token backed by contra insurance and fractal reserve. Divine Covenants: Covenant of Preservation (value never drops below floor), Covenant of Redemption (always redeemable for collateral), Covenant of Truth (all on-chain, transparent), Covenant of Justice (contra insurance protects all), Covenant of Perpetuity (system operates eternally). Features: ERC20 token with floor price protection, Fractal reserve system with dynamic collateral requirements, Contra insurance integration, Divine covenant enforcement, Collateral per token tracking, Solvency checks. **Deployed On:** Polygon #### Functions ##### `mint(address _to, uint256 _amount)` - Mint VINO - **Access:** External (owner only) - **Parameters:** - `_to`: Address to mint to - `_amount`: Amount to mint - **Returns:** None - **Usage:** ```javascript await vino.mint(recipient, amount); ``` - **Description:** Mints VINO tokens with collateral. Enforces covenant of truth and perpetuity. Requires sufficient collateral based on collateral ratio. - **Event:** `Minted`, `Transfer` ##### `burn(uint256 _amount)` - Burn VINO - **Access:** External - **Parameters:** `_amount` - Amount to burn - **Returns:** None - **Usage:** ```javascript await vino.burn(amount); ``` - **Description:** Burns VINO tokens and returns collateral. Enforces covenant of redemption and truth. Returns USDC based on collateral ratio. - **Event:** `Burned`, `Transfer` ##### `addCollateral(uint256 _amount)` - Add Collateral - **Access:** External - **Parameters:** `_amount` - Amount of USDC to add - **Returns:** None - **Usage:** ```javascript await vino.addCollateral(amount); ``` - **Description:** Adds collateral to system. Enforces covenant of justice and truth. Increases reserve backing. - **Event:** `CollateralAdded` ##### `removeCollateral(uint256 _amount)` - Remove Collateral - **Access:** External (owner only) - **Parameters:** `_amount` - Amount to remove - **Returns:** None - **Usage:** ```javascript await vino.removeCollateral(amount); ``` - **Description:** Removes collateral from system (only if over-collateralized). Enforces covenant of justice and truth. Checks fractal reserve requirement. - **Event:** `CollateralRemoved` ##### `transfer(address _to, uint256 _value)` - Transfer with Floor Protection - **Access:** External - **Parameters:** - `_to`: Recipient address - `_value`: Amount to transfer - **Returns:** Success status - **Usage:** ```javascript await vino.transfer(recipient, amount); ``` - **Description:** Transfers tokens with floor price protection. Enforces covenant of preservation and truth. Prevents transfers that would violate floor price. - **Event:** `Transfer` ##### `transferFrom(address _from, address _to, uint256 _value)` - Transfer From with Floor Protection - **Access:** External - **Parameters:** - `_from`: Source address - `_to`: Recipient address - `_value`: Amount to transfer - **Returns:** Success status - **Usage:** ```javascript await vino.transferFrom(sender, recipient, amount); ``` - **Description:** Transfers tokens from approved spender with floor price protection. Enforces covenant of preservation and truth. - **Event:** `Transfer` ##### `approve(address _spender, uint256 _value)` - Approve Spending - **Access:** External - **Parameters:** - `_spender`: Spender address - `_value`: Amount to approve - **Returns:** Success status - **Usage:** ```javascript await vino.approve(spender, amount); ``` - **Description:** Approves spending of tokens by spender. - **Event:** `Approval` ##### `setCovenant(string memory _covenantName, bool _enforced)` - Set Covenant - **Access:** External (owner only) - **Parameters:** - `_covenantName`: Covenant name (Preservation, Redemption, Truth, Justice, Perpetuity) - `_enforced`: Whether to enforce - **Returns:** None - **Usage:** ```javascript await vino.setCovenant("Preservation", true); ``` - **Description:** Updates covenant enforcement. Controls which divine covenants are active. - **Event:** `CovenantEnforced` ##### `setCollateralRatio(uint256 _ratio)` - Set Collateral Ratio - **Access:** External (owner only) - **Parameters:** `_ratio` - Collateral ratio (10%-200%) - **Returns:** None - **Usage:** ```javascript await vino.setCollateralRatio(1e18); // 100% ``` - **Description:** Sets collateral ratio. Minimum 10%, maximum 200%. ##### `setFloorPrice(uint256 _floorPrice)` - Set Floor Price - **Access:** External (owner only) - **Parameters:** `_floorPrice` - Minimum value in USDC (6 decimals) - **Returns:** None - **Usage:** ```javascript await vino.setFloorPrice(1 * 1e6); // 1 USDC ``` - **Description:** Sets floor price for covenant of preservation. - **Event:** `FloorPriceUpdated` ##### `calculateFractalReserve(uint256 _supply, uint256 _riskFactor, uint256 _leverageRatio)` - Calculate Fractal Reserve - **Access:** External View - **Parameters:** - `_supply`: Token supply - `_riskFactor`: Risk factor (0-100) - `_leverageRatio`: Leverage ratio - **Returns:** Required reserve amount - **Usage:** ```javascript const reserve = await vino.calculateFractalReserve(supply, 50, 1e17); ``` - **Description:** Calculates fractal reserve requirement. Formula: Reserve = Base Ratio × (1 + Risk Factor × Leverage Factor). ##### `checkCollateralRequirement()` - Check Collateral Requirement - **Access:** External View - **Parameters:** None - **Returns:** Whether collateral meets requirement - **Usage:** ```javascript const meetsRequirement = await vino.checkCollateralRequirement(); ``` ##### `getCollateralPerToken()` - Get Collateral Per Token - **Access:** External View - **Parameters:** None - **Returns:** Collateral amount per token - **Usage:** ```javascript const collateralPerToken = await vino.getCollateralPerToken(); ``` ##### `isSolvent()` - Check Solvency - **Access:** External View - **Parameters:** None - **Returns:** Whether system is solvent - **Usage:** ```javascript const solvent = await vino.isSolvent(); ``` #### Profitability Applications 1. **Divine Covenants:** Five divine covenants ensure perpetual value and protection. 2. **Floor Price Protection:** Value never drops below floor price (covenant of preservation). 3. **Fractal Reserve:** Dynamic collateral requirements based on risk and leverage. 4. **Contra Insurance:** Integration with contra insurance for protection (covenant of justice). 5. **Redemption:** Always redeemable for collateral (covenant of redemption). --- ### CredibilityScoring (Wallet Reputation) **Purpose:** Credibility Scoring System — Wallet reputation mechanism for credit worthiness assessment. Scoring Factors: Transaction History (30%), Collateral Ratio (25%), Syndicate Participation (20%), Market Behavior (15%), Regulatory Compliance (10%). Features: Multi-factor scoring system, Risk level assessment, Credit limit calculation, Transaction recording, Collateral tracking, Syndicate participation tracking, Market behavior analysis, Regulatory compliance monitoring. **Deployed On:** Polygon #### Functions ##### `calculateScore(address _wallet)` - Calculate Credibility Score - **Access:** External View - **Parameters:** `_wallet` - Wallet address - **Returns:** Credibility score (0-1000) - **Usage:** ```javascript const score = await credibilityScoring.calculateScore(walletAddress); ``` - **Description:** Calculates credibility score for wallet using weighted factors: Transaction History (30%), Collateral Ratio (25%), Syndicate Participation (20%), Market Behavior (15%), Regulatory Compliance (10%). ##### `recordTransaction(address _wallet, uint256 _amount, bool _onTime)` - Record Transaction - **Access:** External - **Parameters:** - `_wallet`: Wallet address - `_amount`: Transaction amount - `_onTime`: Whether payment was on time - **Returns:** None - **Usage:** ```javascript await credibilityScoring.recordTransaction(walletAddress, amount, true); ``` - **Description:** Records transaction for wallet. Updates on-time payments or defaults. Recalculates score. - **Event:** `TransactionRecorded`, `ScoreUpdated` ##### `updateCollateral(address _wallet, uint256 _assets, uint256 _liabilities, uint256 _diversificationBonus)` - Update Collateral - **Access:** External - **Parameters:** - `_wallet`: Wallet address - `_assets`: Total assets - `_liabilities`: Total liabilities - `_diversificationBonus`: Diversification bonus - **Returns:** None - **Usage:** ```javascript await credibilityScoring.updateCollateral(walletAddress, assets, liabilities, bonus); ``` - **Description:** Updates collateral information for wallet. Calculates collateral ratio. Recalculates score. - **Event:** `CollateralUpdated`, `ScoreUpdated` ##### `joinSyndicate(address _wallet, uint256 _syndicateId)` - Join Syndicate - **Access:** External - **Parameters:** - `_wallet`: Wallet address - `_syndicateId`: Syndicate ID - **Returns:** None - **Usage:** ```javascript await credibilityScoring.joinSyndicate(walletAddress, syndicateId); ``` - **Description:** Marks wallet as syndicate member. Increases score based on membership. - **Event:** `SyndicateJoined`, `ScoreUpdated` ##### `leaveSyndicate(address _wallet)` - Leave Syndicate - **Access:** External - **Parameters:** `_wallet` - Wallet address - **Returns:** None - **Usage:** ```javascript await credibilityScoring.leaveSyndicate(walletAddress); ``` - **Description:** Removes wallet from syndicate. Resets syndicate contribution. - **Event:** `SyndicateLeft`, `ScoreUpdated` ##### `recordSyndicateContribution(address _wallet, uint256 _contribution)` - Record Syndicate Contribution - **Access:** External - **Parameters:** - `_wallet`: Wallet address - `_contribution`: Contribution amount - **Returns:** None - **Usage:** ```javascript await credibilityScoring.recordSyndicateContribution(walletAddress, contribution); ``` - **Description:** Records syndicate contribution for wallet. Increases score based on contribution amount. - **Event:** `ScoreUpdated` ##### `addPeerEndorsement(address _wallet, address _endorser)` - Add Peer Endorsement - **Access:** External - **Parameters:** - `_wallet`: Wallet address - `_endorser`: Endorser address - **Returns:** None - **Usage:** ```javascript await credibilityScoring.addPeerEndorsement(walletAddress, endorser); ``` - **Description:** Adds peer endorsement for wallet. Each endorsement increases score (max 400 points). - **Event:** `PeerEndorsement`, `ScoreUpdated` ##### `updateMarketBehavior(address _wallet, bool _isProCyclical, uint256 _riskTakingScore, uint256 _marketTimingAccuracy)` - Update Market Behavior - **Access:** External - **Parameters:** - `_wallet`: Wallet address - `_isProCyclical`: Whether behavior is pro-cyclical - `_riskTakingScore`: Risk taking score (0-1000) - `_marketTimingAccuracy`: Market timing accuracy (0-100) - **Returns:** None - **Usage:** ```javascript await credibilityScoring.updateMarketBehavior(walletAddress, false, 300, 75); ``` - **Description:** Updates market behavior metrics. Counter-cyclical behavior is rewarded. - **Event:** `ScoreUpdated` ##### `updateCompliance(address _wallet, bool _aml, bool _kyc, bool _reporting, bool _legal)` - Update Compliance - **Access:** External - **Parameters:** - `_wallet`: Wallet address - `_aml`: AML compliant - `_kyc`: KYC compliant - `_reporting`: Reporting compliant - `_legal`: Legal standing - **Returns:** None - **Usage:** ```javascript await credibilityScoring.updateCompliance(walletAddress, true, true, true, true); ``` - **Description:** Updates regulatory compliance status. Each compliance flag adds 250 points. - **Event:** `ComplianceUpdated`, `ScoreUpdated` ##### `getRiskLevel(address _wallet)` - Get Risk Level - **Access:** External View - **Parameters:** `_wallet` - Wallet address - **Returns:** Risk level string - **Usage:** ```javascript const riskLevel = await credibilityScoring.getRiskLevel(walletAddress); ``` - **Description:** Returns risk level based on score: HIGH RISK (≤200), MEDIUM RISK (≤400), STANDARD RISK (≤600), LOW RISK (≤800), DIVINE RISK (>800). ##### `getCreditLimit(address _wallet)` - Get Credit Limit - **Access:** External View - **Parameters:** `_wallet` - Wallet address - **Returns:** Credit limit in USDC - **Usage:** ```javascript const creditLimit = await credibilityScoring.getCreditLimit(walletAddress); ``` - **Description:** Returns credit limit based on score: 0 (≤200), 10K (≤400), 100K (≤600), 1M (≤800), 10M (>800). ##### `getCredibilityScore(address _wallet)` - Get Credibility Score Details - **Access:** External View - **Parameters:** `_wallet` - Wallet address - **Returns:** Full credibility score struct - **Usage:** ```javascript const scoreDetails = await credibilityScoring.getCredibilityScore(walletAddress); ``` ##### `initializeScore(address _wallet)` - Initialize Score - **Access:** External (owner only) - **Parameters:** `_wallet` - Wallet address - **Returns:** None - **Usage:** ```javascript await credibilityScoring.initializeScore(walletAddress); ``` - **Description:** Initializes score for new wallet with starting score of 500 and account age. #### Profitability Applications 1. **Multi-Factor Scoring:** Comprehensive reputation assessment with 5 weighted factors. 2. **Risk-Based Pricing:** Credit limits and interest rates based on credibility score. 3. **Syndicate Benefits:** Higher scores from syndicate participation and peer endorsements. 4. **Compliance Incentives:** Rewards for AML/KYC/reporting/legal compliance. 5. **Market Behavior Tracking:** Rewards counter-cyclical behavior, penalizes excessive risk-taking. --- ### ContraInsurance (Insurance Backstop) **Purpose:** Contra Insurance System — Insurance/Reinsurance/Contra Insurance with pristine collateral backing. Hierarchy: Primary Insurance (first layer of protection), Reinsurance (insurance for insurers), Contra Insurance (new pristine collateral type as backstop). Features: Three-tier insurance hierarchy, Policy management with premiums and deductibles, Claims management with approval workflow, Brokerage insurance requirements, Contra pool management, Counter-cyclical buffer building, Stress testing for compliance. **Deployed On:** Polygon #### Functions ##### `issuePolicy(address _holder, InsuranceType _insuranceType, uint256 _coverageAmount, uint256 _premium, uint256 _deductible, uint256 _duration)` - Issue Policy - **Access:** External (owner only) - **Parameters:** - `_holder`: Policy holder - `_insuranceType`: Type of insurance (Primary, Reinsurance, Contra) - `_coverageAmount`: Coverage amount - `_premium`: Annual premium - `_deductible`: Deductible amount - `_duration`: Duration in seconds - **Returns:** None - **Usage:** ```javascript await contraInsurance.issuePolicy(holder, InsuranceType.Contra, coverage, premium, deductible, duration); ``` - **Description:** Issues insurance policy of specified type. Sets expiry date. Adds to user's policy list. - **Event:** `PolicyIssued` ##### `payPremium(uint256 _policyId)` - Pay Premium - **Access:** External (policy holder only) - **Parameters:** `_policyId` - Policy ID - **Returns:** None - **Usage:** ```javascript await contraInsurance.payPremium(policyId); ``` - **Description:** Pays premium for policy. Adds to contra pool balance. Updates total premiums collected. - **Event:** `PremiumPaid`, `ContraPoolDeposit` ##### `checkPolicyExpiry(uint256 _policyId)` - Check Policy Expiry - **Access:** External (owner only) - **Parameters:** `_policyId` - Policy ID - **Returns:** None - **Usage:** ```javascript await contraInsurance.checkPolicyExpiry(policyId); ``` - **Description:** Checks if policy has expired. Deactivates expired policies. - **Event:** `PolicyExpired` ##### `submitClaim(uint256 _policyId, uint256 _claimAmount, string memory _reason)` - Submit Claim - **Access:** External (policy holder only) - **Parameters:** - `_policyId`: Policy ID - `_claimAmount`: Claim amount - `_reason`: Reason for claim - **Returns:** None - **Usage:** ```javascript await contraInsurance.submitClaim(policyId, claimAmount, "Loss event"); ``` - **Description:** Submits insurance claim. Must be within coverage amount and above deductible. - **Event:** `ClaimSubmitted` ##### `approveClaim(uint256 _claimId)` - Approve Claim - **Access:** External (owner only) - **Parameters:** `_claimId` - Claim ID - **Returns:** None - **Usage:** ```javascript await contraInsurance.approveClaim(claimId); ``` - **Description:** Approves claim for payment. Sets processed timestamp. - **Event:** `ClaimApproved` ##### `payClaim(uint256 _claimId)` - Pay Claim - **Access:** External (owner only) - **Parameters:** `_claimId` - Claim ID - **Returns:** None - **Usage:** ```javascript await contraInsurance.payClaim(claimId); ``` - **Description:** Pays approved claim from contra pool. Updates total claims paid. - **Event:** `ClaimPaid` ##### `rejectClaim(uint256 _claimId, string memory _reason)` - Reject Claim - **Access:** External (owner only) - **Parameters:** - `_claimId`: Claim ID - `_reason`: Rejection reason - **Returns:** None - **Usage:** ```javascript await contraInsurance.rejectClaim(claimId, "Invalid claim"); ``` - **Description:** Rejects unapproved claim. - **Event:** `ClaimRejected` ##### `updateBrokerageInsurance(address _brokerage, bool _hasPrimary, bool _hasReinsurance, bool _hasContra, uint256 _capitalReserve)` - Update Brokerage Insurance - **Access:** External (owner only) - **Parameters:** - `_brokerage`: Brokerage address - `_hasPrimary`: Has primary insurance - `_hasReinsurance`: Has reinsurance - `_hasContra`: Has contra insurance - `_capitalReserve`: Capital reserve amount - **Returns:** None - **Usage:** ```javascript await contraInsurance.updateBrokerageInsurance(brokerage, true, true, true, capitalReserve); ``` - **Description:** Updates brokerage insurance status. Calculates minimum capital requirement based on insurance tiers. Performs stress test. - **Event:** `BrokerageInsuranceUpdated` ##### `calculateMinimumCapital(bool _hasPrimary, bool _hasReinsurance, bool _hasContra)` - Calculate Minimum Capital - **Access:** External Pure - **Parameters:** - `_hasPrimary`: Has primary insurance - `_hasReinsurance`: Has reinsurance - `_hasContra`: Has contra insurance - **Returns:** Minimum capital requirement - **Usage:** ```javascript const minCapital = await contraInsurance.calculateMinimumCapital(true, true, true); ``` - **Description:** Calculates minimum capital requirement. Base 1M USDC reduced by 20% (primary), 30% (reinsurance), 40% (contra). ##### `checkBrokerageCompliance(address _brokerage)` - Check Brokerage Compliance - **Access:** External View - **Parameters:** `_brokerage` - Brokerage address - **Returns:** Compliant status, reason - **Usage:** ```javascript const [compliant, reason] = await contraInsurance.checkBrokerageCompliance(brokerage); ``` - **Description:** Checks if brokerage meets all insurance requirements (primary, reinsurance, contra, capital reserve, stress test). ##### `depositToContraPool(uint256 _amount)` - Deposit to Contra Pool - **Access:** External - **Parameters:** `_amount` - Amount to deposit - **Returns:** None - **Usage:** ```javascript await contraInsurance.depositToContraPool(amount); ``` - **Description:** Deposits USDC to contra pool. Increases pool balance and total premiums. - **Event:** `ContraPoolDeposit` ##### `withdrawFromContraPool(uint256 _amount)` - Withdraw from Contra Pool - **Access:** External (owner only) - **Parameters:** `_amount` - Amount to withdraw - **Returns:** None - **Usage:** ```javascript await contraInsurance.withdrawFromContraPool(amount); ``` - **Description:** Withdraws from contra pool for rebalancing. Must maintain 2x coverage of total claims paid. - **Event:** `ContraPoolWithdrawal` ##### `buildBuffer(uint256 _amount)` - Build Counter-Cyclical Buffer - **Access:** External (owner only) - **Parameters:** `_amount` - Amount to add to buffer - **Returns:** None - **Usage:** ```javascript await contraInsurance.buildBuffer(amount); ``` - **Description:** Builds counter-cyclical buffer during good times to prepare for bad times. - **Event:** `BufferBuilt` ##### `getBufferHealthRatio()` - Get Buffer Health Ratio - **Access:** External View - **Parameters:** None - **Returns:** Buffer health ratio (0-1000) - **Usage:** ```javascript const healthRatio = await contraInsurance.getBufferHealthRatio(); ``` - **Description:** Returns buffer health ratio. Target is 2x coverage of total claims paid (1000 = 100%). ##### `getUserPolicies(address _user)` - Get User Policies - **Access:** External View - **Parameters:** `_user` - User address - **Returns:** Array of policy IDs - **Usage:** ```javascript const policyIds = await contraInsurance.getUserPolicies(userAddress); ``` ##### `getUserClaims(address _user)` - Get User Claims - **Access:** External View - **Parameters:** `_user` - User address - **Returns:** Array of claim IDs - **Usage:** ```javascript const claimIds = await contraInsurance.getUserClaims(userAddress); ``` #### Profitability Applications 1. **Three-Tier Hierarchy:** Primary, Reinsurance, and Contra insurance layers for comprehensive protection. 2. **Premium Income:** Premiums collected and added to contra pool for claims payment. 3. **Brokerage Requirements:** Minimum capital requirements reduced with full insurance coverage. 4. **Counter-Cyclical Buffer:** Build buffer in good times, use in bad times for stability. 5. **Stress Testing:** Ensures brokerages maintain adequate capital reserves. --- ### BankingSyndicates (Horizontal Collaboration) **Purpose:** Banking Syndicates — Horizontal Collaborative Colonialism. Platform for cooperative banking syndicates replacing vertical chain of command. Philosophy: All syndicates equal partners, Horizontal decision making, Shared risks and rewards, Mutual protection, Collective growth. Features: Syndicate creation and management, DAO-style proposal system, Liquidity pools, Cross-syndicate loans, Revenue distribution based on contribution, Member reputation tracking. **Deployed On:** Polygon #### Functions ##### `createSyndicate(string memory _name, SyndicateType _syndicateType)` - Create Syndicate - **Access:** External - **Parameters:** - `_name`: Syndicate name - `_syndicateType`: Type of syndicate (Lead, Participating, Associate, Observer) - **Returns:** None - **Usage:** ```javascript await bankingSyndicates.createSyndicate("Alpha Syndicate", SyndicateType.Lead); ``` - **Description:** Creates new banking syndicate. Creator automatically joins as member. Sets initial revenue share to 100%. - **Event:** `SyndicateCreated` ##### `joinSyndicate(uint256 _syndicateId, uint256 _contribution)` - Join Syndicate - **Access:** External - **Parameters:** - `_syndicateId`: Syndicate ID - `_contribution`: Initial contribution - **Returns:** None - **Usage:** ```javascript await bankingSyndicates.joinSyndicate(syndicateId, contribution); ``` - **Description:** Joins existing syndicate. Transfers contribution if > 0. Sets starting reputation to 500. - **Event:** `MemberJoined` ##### `leaveSyndicate(uint256 _syndicateId)` - Leave Syndicate - **Access:** External (member only) - **Parameters:** `_syndicateId` - Syndicate ID - **Returns:** None - **Usage:** ```javascript await bankingSyndicates.leaveSyndicate(syndicateId); ``` - **Description:** Leaves syndicate. Returns contribution to member. Creator cannot leave. - **Event:** `MemberLeft` ##### `addContribution(uint256 _syndicateId, uint256 _amount)` - Add Contribution - **Access:** External (member only) - **Parameters:** - `_syndicateId`: Syndicate ID - `_amount`: Contribution amount - **Returns:** None - **Usage:** ```javascript await bankingSyndicates.addContribution(syndicateId, amount); ``` - **Description:** Adds additional contribution to syndicate. Increases voting power. - **Event:** `ContributionAdded` ##### `createProposal(uint256 _syndicateId, string memory _description, uint256 _amount)` - Create Proposal - **Access:** External (member only) - **Parameters:** - `_syndicateId`: Syndicate ID - `_description`: Proposal description - `_amount`: Amount if applicable - **Returns:** None - **Usage:** ```javascript await bankingSyndicates.createProposal(syndicateId, "Fund new project", amount); ``` - **Description:** Creates DAO-style proposal for syndicate. Starts in Pending status. - **Event:** `ProposalCreated` ##### `voteOnProposal(uint256 _proposalId, bool _voteFor)` - Vote on Proposal - **Access:** External - **Parameters:** - `_proposalId`: Proposal ID - `_voteFor`: Vote for (true) or against (false) - **Returns:** None - **Usage:** ```javascript await bankingSyndicates.voteOnProposal(proposalId, true); ``` - **Description:** Votes on proposal. Voting weight based on contribution. Proposal passes when >50% of total contribution votes and votes for > votes against. - **Event:** `ProposalVoted` ##### `executeProposal(uint256 _proposalId)` - Execute Proposal - **Access:** External (member only) - **Parameters:** `_proposalId` - Proposal ID - **Returns:** None - **Usage:** ```javascript await bankingSyndicates.executeProposal(proposalId); ``` - **Description:** Executes approved proposal. Transfers funds if amount > 0. Marks as Executed. - **Event:** `ProposalExecuted` ##### `createLiquidityPool(uint256 _syndicateId, uint256 _initialAmount)` - Create Liquidity Pool - **Access:** External (creator only) - **Parameters:** - `_syndicateId`: Syndicate ID - `_initialAmount`: Initial liquidity amount - **Returns:** None - **Usage:** ```javascript await bankingSyndicates.createLiquidityPool(syndicateId, initialAmount); ``` - **Description:** Creates liquidity pool for syndicate. Creator provides initial liquidity. - **Event:** `LiquidityPoolCreated` ##### `addLiquidity(uint256 _poolId, uint256 _amount)` - Add Liquidity - **Access:** External - **Parameters:** - `_poolId`: Pool ID - `_amount`: Amount to add - **Returns:** None - **Usage:** ```javascript await bankingSyndicates.addLiquidity(poolId, amount); ``` - **Description:** Adds liquidity to pool. Increases share count and total liquidity. - **Event:** `LiquidityAdded` ##### `issueCrossSyndicateLoan(uint256 _fromSyndicateId, uint256 _toSyndicateId, uint256 _amount, uint256 _interestRate, uint256 _duration)` - Issue Cross-Syndicate Loan - **Access:** External (lending syndicate member only) - **Parameters:** - `_fromSyndicateId`: Lending syndicate - `_toSyndicateId`: Borrowing syndicate - `_amount`: Loan amount - `_interestRate`: Interest rate (basis points) - `_duration`: Duration in seconds - **Returns:** None - **Usage:** ```javascript await bankingSyndicates.issueCrossSyndicateLoan(fromId, toId, amount, 500, duration); ``` - **Description:** Issues loan between syndicates. Transfers funds from lending to borrowing syndicate. - **Event:** `CrossSyndicateLoanIssued` ##### `repayCrossSyndicateLoan(uint256 _loanId)` - Repay Cross-Syndicate Loan - **Access:** External - **Parameters:** `_loanId` - Loan ID - **Returns:** None - **Usage:** ```javascript await bankingSyndicates.repayCrossSyndicateLoan(loanId); ``` - **Description:** Repays cross-syndicate loan with interest. Returns total repayment to lending syndicate. - **Event:** `CrossSyndicateLoanRepaid` ##### `distributeRevenue(uint256 _syndicateId, uint256 _totalRevenue)` - Distribute Revenue - **Access:** External (creator only) - **Parameters:** - `_syndicateId`: Syndicate ID - `_totalRevenue`: Total revenue to distribute - **Returns:** None - **Usage:** ```javascript await bankingSyndicates.distributeRevenue(syndicateId, totalRevenue); ``` - **Description:** Distributes revenue to syndicate members based on contribution share. - **Event:** `RevenueDistributed` ##### `getUserSyndicates(address _user)` - Get User Syndicates - **Access:** External View - **Parameters:** `_user` - User address - **Returns:** Array of syndicate IDs - **Usage:** ```javascript const syndicateIds = await bankingSyndicates.getUserSyndicates(userAddress); ``` ##### `getSyndicateProposals(uint256 _syndicateId)` - Get Syndicate Proposals - **Access:** External View - **Parameters:** `_syndicateId` - Syndicate ID - **Returns:** Array of proposal IDs - **Usage:** ```javascript const proposalIds = await bankingSyndicates.getSyndicateProposals(syndicateId); ``` ##### `getSyndicate(uint256 _syndicateId)` - Get Syndicate Details - **Access:** External View - **Parameters:** `_syndicateId` - Syndicate ID - **Returns:** Syndicate struct - **Usage:** ```javascript const syndicate = await bankingSyndicates.getSyndicate(syndicateId); ``` ##### `getMember(uint256 _syndicateId, address _member)` - Get Member Details - **Access:** External View - **Parameters:** - `_syndicateId`: Syndicate ID - `_member`: Member address - **Returns:** Member struct - **Usage:** ```javascript const member = await bankingSyndicates.getMember(syndicateId, memberAddress); ``` #### Profitability Applications 1. **Horizontal Collaboration:** Equal partners in syndicates replacing vertical hierarchy. 2. **DAO Governance:** Proposal and voting system for democratic decision making. 3. **Revenue Sharing:** Distribution based on contribution to syndicate. 4. **Cross-Syndicate Loans:** Inter-syndicate lending with interest income. 5. **Liquidity Pools:** Shared liquidity for syndicate operations and investments. --- ### ZeroPointEnergy (Self-Powered Gas) **Purpose:** ZeroPointEnergy — Self-Powered Blockchain Gas System. Applies zero-point energy technologies to create self-sustaining blockchain gas mechanics. Zero-Point Energy Technologies Applied: Bedini Pulse Charging (capture MEV bot activity), MEG Motionless Electromagnetic Generator (extract from state entropy), Tesla Coil (resonant energy transfer across chains), Tesla Switch (self-powered circuit), Floyd Sweet's VTA (amplify small state changes into gas). Physics Translation: Zero-Point Field = blockchain state entropy, Magnetic Flux = MEV bot activity, Collapsing Field = transaction completion, Resonant Frequency = cross-chain synchronization, Vacuum Fluctuations = random nonce and block variations. **Deployed On:** Polygon #### Functions ##### `captureMagneticFlux(address botAddress, uint256 fluxAmount)` - Capture Magnetic Flux - **Access:** External - **Parameters:** - `botAddress`: Address of MEV bot - `fluxAmount`: Amount of magnetic flux (transaction volume) - **Returns:** None - **Usage:** ```javascript await zeroPointEnergy.captureMagneticFlux(botAddress, fluxAmount); ``` - **Description:** Captures magnetic flux from MEV bot activity using Bedini pulse charging (95% efficiency). Converts flux to gas energy and adds to reservoir. - **Event:** `MagneticFluxCaptured`, `GasGenerated` ##### `captureCollapsingFieldEnergy(bytes32 txHash, uint256 gasUsed)` - Capture Collapsing Field Energy - **Access:** External - **Parameters:** - `txHash`: Transaction hash - `gasUsed`: Gas used in transaction - **Returns:** None - **Usage:** ```javascript await zeroPointEnergy.captureCollapsingFieldEnergy(txHash, gasUsed); ``` - **Description:** Captures energy from collapsing magnetic fields (transaction completion). Applies MEG amplification (1.5x) to extracted energy. - **Event:** `CollapsingFieldEnergyCaptured`, `GasGenerated` ##### `transferResonantEnergy(uint256 chainId, uint256 energyAmount)` - Transfer Resonant Energy - **Access:** External - **Parameters:** - `chainId`: Target chain ID - `energyAmount`: Energy to transfer - **Returns:** None - **Usage:** ```javascript await zeroPointEnergy.transferResonantEnergy(chainId, energyAmount); ``` - **Description:** Transfers resonant energy across chains using Tesla coil effect. Calculates efficiency based on chain frequency matching. - **Event:** `ResonantEnergyTransferred`, `GasGenerated` ##### `executeTeslaSwitch()` - Execute Tesla Switch - **Access:** External - **Parameters:** None - **Returns:** Gas generated - **Usage:** ```javascript const gasGenerated = await zeroPointEnergy.executeTeslaSwitch(); ``` - **Description:** Executes Tesla Switch - self-powered gas generation loop. Extracts ZPE, captures flux, captures collapse energy, and applies VTA amplification. ##### `setVTAAmplification(uint256 amplification)` - Set VTA Amplification - **Access:** External (owner only) - **Parameters:** `amplification` - New amplification factor (100-1000%) - **Returns:** None - **Usage:** ```javascript await zeroPointEnergy.setVTAAmplification(150); // 1.5x ``` - **Description:** Sets Floyd Sweet's VTA amplification factor for amplifying small energy inputs. ##### `getGasReservoir()` - Get Gas Reservoir - **Access:** External View - **Parameters:** None - **Returns:** Total gas in reservoir - **Usage:** ```javascript const gasReservoir = await zeroPointEnergy.getGasReservoir(); ``` ##### `getGasGenerationRate()` - Get Gas Generation Rate - **Access:** External View - **Parameters:** None - **Returns:** Gas generation rate - **Usage:** ```javascript const rate = await zeroPointEnergy.getGasGenerationRate(); ``` ##### `getZeroPointField()` - Get Zero-Point Field State - **Access:** External View - **Parameters:** None - **Returns:** Entropy, fluctuation, resonance, lastUpdate - **Usage:** ```javascript const [entropy, fluctuation, resonance, lastUpdate] = await zeroPointEnergy.getZeroPointField(); ``` ##### `isSelfPowered()` - Check if System is Self-Powered - **Access:** External View - **Parameters:** None - **Returns:** Whether system is self-powered - **Usage:** ```javascript const selfPowered = await zeroPointEnergy.isSelfPowered(); ``` ##### `withdrawGas(uint256 amount)` - Withdraw Gas - **Access:** External (owner only) - **Parameters:** `amount` - Amount to withdraw - **Returns:** None - **Usage:** ```javascript await zeroPointEnergy.withdrawGas(amount); ``` ##### `emergencyReset()` - Emergency Reset - **Access:** External (owner only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await zeroPointEnergy.emergencyReset(); ``` #### Profitability Applications 1. **Self-Powered Gas:** Generates gas from zero-point energy without external input. 2. **MEV Capture:** Captures energy from MEV bot activity using Bedini pulse charging. 3. **Cross-Chain Resonance:** Transfers energy across chains using Tesla coil resonant frequency matching. 4. **State Entropy Extraction:** Extracts energy from blockchain state entropy (MEG). 5. **VTA Amplification:** Amplifies small energy inputs using Floyd Sweet's vacuum triode amplifier. --- ### OliveOil (Medici Fee) **Purpose:** Olive Oil — The Binary State Transition Fee. Captures 3.25% Medici fee on the interaction surplus of state transitions. The Olive Oil is the lubricant that makes all state transitions smooth. It sits between the bytecode execution and the state transition, capturing the interaction surplus when 0 becomes 1, when pending becomes complete. Only applies on successful completion - no harm, no foul on failure. Properties: Binary level (captures the 0→1 swap), State transition fee (3.25% on pending→complete), No harm no foul (only charges on success), Multi-ecosystem (works across all EVM chains), Multi-cryptocurrency (accepts any token), Instant bootstrap (sparks cascade across system). **Deployed On:** Ethereum (primary deployment) #### Functions ##### `calculateInteractionSurplus(uint256 valueTransferred, uint256 gasUsed, uint256 gasPrice, uint256 externalities)` - Calculate Interaction Surplus - **Access:** External Pure - **Parameters:** - `valueTransferred`: Value transferred - `gasUsed`: Gas used - `gasPrice`: Gas price - `externalities`: Externalities created - **Returns:** Interaction surplus - **Usage:** ```javascript const surplus = await oliveOil.calculateInteractionSurplus(value, gasUsed, gasPrice, externalities); ``` - **Description:** Calculates interaction surplus as value transferred minus gas cost plus externalities. ##### `collectMediciFeeWithToken(bytes32 txHash, uint256 fee, address paymentToken)` - Collect Medici Fee with Token - **Access:** External - **Parameters:** - `txHash`: Transaction hash - `fee`: Fee amount - `paymentToken`: Token to pay with - **Returns:** None - **Usage:** ```javascript await oliveOil.collectMediciFeeWithToken(txHash, fee, tokenAddress); ``` - **Description:** Collects Medici fee using token payment. Distributes fee to Medici treasury (50%), protocol treasury (30%), and bootstrap pool (20%). - **Event:** `MediciFeeCollected` ##### `addPaymentToken(address token)` - Add Payment Token - **Access:** External (owner only) - **Parameters:** `token` - Token address - **Returns:** None - **Usage:** ```javascript await oliveOil.addPaymentToken(tokenAddress); ``` - **Description:** Adds a token to the list of accepted payment tokens. ##### `removePaymentToken(address token)` - Remove Payment Token - **Access:** External (owner only) - **Parameters:** `token` - Token address - **Returns:** None - **Usage:** ```javascript await oliveOil.removePaymentToken(tokenAddress); ``` - **Description:** Removes a token from the list of accepted payment tokens. ##### `setFulcrumToken(address _fulcrumToken)` - Set Fulcrum Token - **Access:** External (owner only) - **Parameters:** `_fulcrumToken` - Fulcrum token address - **Returns:** None - **Usage:** ```javascript await oliveOil.setFulcrumToken(fulcrumAddress); ``` - **Description:** Sets the Fulcrum token address as the primary payment token. ##### `setMediciTreasury(address _mediciTreasury)` - Set Medici Treasury - **Access:** External (owner only) - **Parameters:** `_mediciTreasury` - Medici treasury address - **Returns:** None - **Usage:** ```javascript await oliveOil.setMediciTreasury(treasuryAddress); ``` - **Description:** Sets the Medici treasury address for fee distribution. ##### `setProtocolTreasury(address _protocolTreasury)` - Set Protocol Treasury - **Access:** External (owner only) - **Parameters:** `_protocolTreasury` - Protocol treasury address - **Returns:** None - **Usage:** ```javascript await oliveOil.setProtocolTreasury(treasuryAddress); ``` - **Description:** Sets the protocol treasury address for fee distribution. ##### `setBootstrapPool(address _bootstrapPool)` - Set Bootstrap Pool - **Access:** External (owner only) - **Parameters:** `_bootstrapPool` - Bootstrap pool address - **Returns:** None - **Usage:** ```javascript await oliveOil.setBootstrapPool(poolAddress); ``` - **Description:** Sets the bootstrap pool address for fee distribution. ##### `updateFeeShares(uint256 _mediciShare, uint256 _protocolShare, uint256 _bootstrapShare)` - Update Fee Shares - **Access:** External (owner only) - **Parameters:** - `_mediciShare`: Medici share (0-100) - `_protocolShare`: Protocol share (0-100) - `_bootstrapShare`: Bootstrap share (0-100) - **Returns:** None - **Usage:** ```javascript await oliveOil.updateFeeShares(50, 30, 20); ``` - **Description:** Updates fee distribution shares. Must sum to 100. ##### `getTransition(bytes32 txHash)` - Get Transition - **Access:** External View - **Parameters:** `txHash` - Transaction hash - **Returns:** Transition details - **Usage:** ```javascript const transition = await oliveOil.getTransition(txHash); ``` ##### `getTransitionHistory(uint256 limit)` - Get Transition History - **Access:** External View - **Parameters:** `limit` - Maximum number of transitions - **Returns:** Transition history array - **Usage:** ```javascript const history = await oliveOil.getTransitionHistory(100); ``` ##### `getTotalTransitions()` - Get Total Transitions - **Access:** External View - **Parameters:** None - **Returns:** Total number of transitions - **Usage:** ```javascript const total = await oliveOil.getTotalTransitions(); ``` ##### `calculateMediciFee(uint256 interactionSurplus)` - Calculate Medici Fee - **Access:** External Pure - **Parameters:** `interactionSurplus` - Interaction surplus - **Returns:** Expected Medici fee (3.25%) - **Usage:** ```javascript const fee = await oliveOil.calculateMediciFee(surplus); ``` ##### `isTokenAccepted(address token)` - Check Token Accepted - **Access:** External View - **Parameters:** `token` - Token address - **Returns:** Whether token is accepted - **Usage:** ```javascript const accepted = await oliveOil.isTokenAccepted(tokenAddress); ``` #### Profitability Applications 1. **3.25% Medici Fee:** Captures fee on all successful state transitions. 2. **No Harm No Foul:** Only charges on successful completion, no fee on failure. 3. **Multi-Token Payment:** Accepts any token as payment for fees. 4. **Fee Distribution:** Distributes to Medici treasury (50%), protocol treasury (30%), bootstrap pool (20%). 5. **State Transition Tracking:** Tracks all state transitions for audit and analysis. --- ### CryptographicEssenceLab (Alchemy Synthesis) **Purpose:** Cryptographic Essence Synthesis Laboratory — MSS (Materia Synthesis System). Alchemy-based technology synthesis within blockchain. Cryptographic wrapping changes essence. Repeatable permutations of numbers in a sequence can change the essence. This laboratory synthesizes new cryptographic materials that serve specialized functions, replicating hardware technology within the blockchain. The Laboratory uses alchemy principles: Essence criteria matched with geometry and numerology, Cryptographic wrapping/unwrapping changes essence, Permutations of numbers change essence, Distillation of essence from property ranges, Synthesis of new cryptographic materials, Technology replication within blockchain. **Deployed On:** Polygon #### Functions ##### `createEssence(string memory name, CryptoProperty[10] memory properties, uint256[10] memory propertyValues, uint256 geometry, uint256 numerology)` - Create Essence - **Access:** External - **Parameters:** - `name`: Essence name - `properties`: Array of 10 crypto properties - `propertyValues`: Array of 10 property values (0-255) - `geometry`: Geometric representation - `numerology`: Numerological value - **Returns:** Essence ID - **Usage:** ```javascript const essenceId = await lab.createEssence("Gold Essence", properties, values, geometry, numerology); ``` - **Description:** Creates a new cryptographic essence with 10 crypto properties (Entropy, Order, Symmetry, Asymmetry, Flow, Stasis, Complexity, Simplicity, Resonance, Dissonance). Calculates essence hash from properties. - **Event:** `EssenceCreated` ##### `wrapToken(uint256 essenceId, address wrappedToken)` - Wrap Token - **Access:** External - **Parameters:** - `essenceId`: Essence to use for wrapping - `wrappedToken`: Token to wrap - **Returns:** Wrapping layer ID - **Usage:** ```javascript const layerId = await lab.wrapToken(essenceId, tokenAddress); ``` - **Description:** Wraps a token with an essence (changes essence). Creates wrapping layer and recalculates essence hash. - **Event:** `EssenceWrapped` ##### `unwrapToken(uint256 essenceId, uint256 layerId)` - Unwrap Token - **Access:** External - **Parameters:** - `essenceId`: Essence to unwrap - `layerId`: Layer to unwrap - **Returns:** None - **Usage:** ```javascript await lab.unwrapToken(essenceId, layerId); ``` - **Description:** Unwraps a token from essence. Decreases wrapping depth and recalculates essence hash. - **Event:** `EssenceUnwrapped` ##### `permuteEssence(uint256 essenceId, uint256[10] memory permutationPattern)` - Permute Essence - **Access:** External - **Parameters:** - `essenceId`: Essence to permute - `permutationPattern`: Permutation pattern (array of indices) - **Returns:** None - **Usage:** ```javascript await lab.permuteEssence(essenceId, [9,8,7,6,5,4,3,2,1,0]); ``` - **Description:** Permutes essence properties (changes essence). Reorders properties and values according to pattern. - **Event:** `EssencePermuted` ##### `reversePermutation(uint256 essenceId)` - Reverse Permutation - **Access:** External - **Parameters:** `essenceId` - Essence to reverse permute - **Returns:** None - **Usage:** ```javascript await lab.reversePermutation(essenceId); ``` - **Description:** Reverses permutation on essence properties. - **Event:** `EssencePermuted` ##### `distillEssence(uint256 essenceId, uint256 propertyIndex, uint256 minRange, uint256 maxRange)` - Distill Essence - **Access:** External - **Parameters:** - `essenceId`: Essence to distill - `propertyIndex`: Property index - `minRange`: Minimum range value - `maxRange`: Maximum range value - **Returns:** Distilled value - **Usage:** ```javascript const distilled = await lab.distillEssence(essenceId, 0, 50, 200); ``` - **Description:** Distills essence from property range. If value is within range, extracts essence and updates property value. - **Event:** `EssenceDistilled` ##### `createRecipe(string memory name, uint256[] memory inputEssenceIds, uint256[] memory inputAmounts, uint256 outputEssenceId, uint256 synthesisTemperature, uint256 synthesisPressure, uint256 synthesisTime, uint256 successRate)` - Create Recipe - **Access:** External (owner only) - **Parameters:** - `name`: Recipe name - `inputEssenceIds`: Array of input essence IDs - `inputAmounts`: Array of input amounts - `outputEssenceId`: Output essence ID - `synthesisTemperature`: Temperature (0-1000) - `synthesisPressure`: Pressure (0-1000) - `synthesisTime`: Time in seconds - `successRate`: Success rate (0-100) - **Returns:** Recipe ID - **Usage:** ```javascript const recipeId = await lab.createRecipe("Transmutation", inputs, amounts, output, 500, 500, 3600, 80); ``` - **Description:** Creates a synthesis recipe for combining essences. ##### `executeSynthesis(uint256 recipeId)` - Execute Synthesis - **Access:** External - **Parameters:** `recipeId` - Recipe to execute - **Returns:** Output essence ID - **Usage:** ```javascript const outputEssenceId = await lab.executeSynthesis(recipeId); ``` - **Description:** Executes synthesis recipe. Checks success rate and marks output essence as synthesized if successful. - **Event:** `SynthesisExecuted` ##### `synthesizeTechnology(string memory name, string memory description, uint256 essenceId, uint256 geometry, uint256 numerology, uint256 functionType, uint256 complexity, bytes memory bytecode)` - Synthesize Technology - **Access:** External - **Parameters:** - `name`: Technology name - `description`: Technology description - `essenceId`: Essence to use - `geometry`: Geometric representation - `numerology`: Numerological value - `functionType`: Function type - `complexity`: Complexity level - `bytecode`: Bytecode representation - **Returns:** Blueprint ID - **Usage:** ```javascript const blueprintId = await lab.synthesizeTechnology(name, description, essenceId, geometry, numerology, functionType, complexity, bytecode); ``` - **Description:** Synthesizes technology blueprint from essence. Matches essence criteria with geometry and numerology. - **Event:** `TechnologySynthesized` ##### `getEssence(uint256 essenceId)` - Get Essence - **Access:** External View - **Parameters:** `essenceId` - Essence ID - **Returns:** Essence struct - **Usage:** ```javascript const essence = await lab.getEssence(essenceId); ``` ##### `getRecipe(uint256 recipeId)` - Get Recipe - **Access:** External View - **Parameters:** `recipeId` - Recipe ID - **Returns:** Recipe struct - **Usage:** ```javascript const recipe = await lab.getRecipe(recipeId); ``` ##### `getBlueprint(uint256 blueprintId)` - Get Blueprint - **Access:** External View - **Parameters:** `blueprintId` - Blueprint ID - **Returns:** Blueprint struct - **Usage:** ```javascript const blueprint = await lab.getBlueprint(blueprintId); ``` ##### `getWrappingLayer(uint256 layerId)` - Get Wrapping Layer - **Access:** External View - **Parameters:** `layerId` - Layer ID - **Returns:** Wrapping layer struct - **Usage:** ```javascript const layer = await lab.getWrappingLayer(layerId); ``` ##### `calculateEssenceCompatibility(uint256 essenceId1, uint256 essenceId2)` - Calculate Essence Compatibility - **Access:** External View - **Parameters:** - `essenceId1`: First essence ID - `essenceId2`: Second essence ID - **Returns:** Compatibility score (0-100) - **Usage:** ```javascript const compatibility = await lab.calculateEssenceCompatibility(essenceId1, essenceId2); ``` - **Description:** Calculates compatibility between two essences based on property differences. ##### `getPropertyName(CryptoProperty property)` - Get Property Name - **Access:** External Pure - **Parameters:** `property` - Crypto property - **Returns:** Property name string - **Usage:** ```javascript const name = await lab.getPropertyName(CryptoProperty.Entropy); ``` #### Profitability Applications 1. **Essence Synthesis:** Create new cryptographic materials with specialized functions. 2. **Cryptographic Wrapping:** Change essence by wrapping tokens with cryptographic properties. 3. **Permutation System:** Change essence through number sequence permutations. 4. **Alchemy Recipes:** Combine essences to synthesize new materials with success rates. 5. **Technology Replication:** Synthesize hardware technology within blockchain using essence criteria matching. --- ### SharedSecret (Circular Ring) **Purpose:** Shared Secret Cross-Chain Mechanism — Each contract on each chain is a shared secret of another. The Web of Secrets: Polygon contract holds secret for Ethereum contract, Ethereum contract holds secret for Arbitrum contract, Arbitrum contract holds secret for Optimism contract, Optimism contract holds secret for Base contract, Base contract holds secret for Polygon contract. Circular dependency creates cryptographic interdependence without bridges. Each contract needs the secret from another chain to unlock functionality. **Deployed On:** Polygon, Ethereum, Arbitrum, Optimism, Base (circular chain) #### Functions ##### `setHeldSecret(bytes32 _secret)` - Set Held Secret - **Access:** External (owner only) - **Parameters:** `_secret` - Secret this contract holds for another chain - **Returns:** None - **Usage:** ```javascript await sharedSecret.setHeldSecret(secret); ``` - **Description:** Sets the secret this contract holds (for another chain). - **Event:** `SecretSet` ##### `setRequiredSecret(bytes32 _secret)` - Set Required Secret - **Access:** External (owner only) - **Parameters:** `_secret` - Secret this contract requires from another chain - **Returns:** None - **Usage:** ```javascript await sharedSecret.setRequiredSecret(secret); ``` - **Description:** Sets the secret this contract needs (from another chain). - **Event:** `SecretRequired` ##### `verifySecret(bytes32 _secret)` - Verify Secret - **Access:** External - **Parameters:** `_secret` - Secret to verify - **Returns:** Whether secret matches - **Usage:** ```javascript const verified = await sharedSecret.verifySecret(secret); ``` - **Description:** Verifies a secret from another chain. If verified and not unlocked, unlocks the contract. - **Event:** `SecretVerified`, `SecretUnlocked` ##### `getHeldSecret()` - Get Held Secret - **Access:** External View (owner only) - **Parameters:** None - **Returns:** Held secret - **Usage:** ```javascript const secret = await sharedSecret.getHeldSecret(); ``` ##### `checkUnlocked()` - Check Unlocked - **Access:** External View - **Parameters:** None - **Returns:** Whether contract is unlocked - **Usage:** ```javascript const unlocked = await sharedSecret.checkUnlocked(); ``` ##### `regenerateSecret()` - Regenerate Secret - **Access:** External (owner only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await sharedSecret.regenerateSecret(); ``` - **Description:** Regenerates a new secret. ##### `getSecretHistory()` - Get Secret History - **Access:** External View - **Parameters:** None - **Returns:** Secret verification history - **Usage:** ```javascript const history = await sharedSecret.getSecretHistory(); ``` ##### `getContractInfo()` - Get Contract Info - **Access:** External View - **Parameters:** None - **Returns:** Chain ID, chain name, target chain ID, target chain name, source chain ID, source chain name, unlocked status - **Usage:** ```javascript const info = await sharedSecret.getContractInfo(); ``` #### Profitability Applications 1. **Cryptographic Interdependence:** Creates circular dependency without bridges for security. 2. **Cross-Chain Unlock:** Each contract needs secret from another chain to unlock functionality. 3. **Secret Verification:** Verifies secrets from other chains with history tracking. 4. **Web of Secrets:** Circular ring of secrets across chains for mutual authentication. 5. **Bridgeless Security:** Cryptographic interdependence without traditional bridge infrastructure. --- ### QuantumMeshShield (Triad Mesh) **Purpose:** QuantumMeshShield — Triad-mesh auto-rotating shared secret network. Architecture: 13 chains organized into 9 overlapping triads, each triad has 3 members each holding a seed fragment, secrets rotate on a harmonic pulse synced to block rhythm, forward-secure (epoch N cannot derive epoch N+1 without seed), mesh topology (compromise one triad, others still hold), grace window (previous epoch valid during overlap), decoy channels emit noise to obscure real rotations. Triad Map: A (Polygon/Ethereum/Arbitrum), B (Arbitrum/Optimism/Base), C (Base/BSC/Avalanche), D (Avalanche/Unichain/Polygon), E (Polygon/Tron/XRP), F (XRP/Xahau/NEAR), G (NEAR/SUI/Cosmos), H (Cosmos/Ethereum/Tron), I (Tron/Xahau/Optimism). **Deployed On:** Polygon, Ethereum, Arbitrum, Optimism, Base, BSC, Avalanche #### Functions ##### `registerTriad(string calldata label, uint256[3] calldata memberChains, bytes32 seedFragment, uint256 pulseInterval)` - Register Triad - **Access:** External (architect only) - **Parameters:** - `label`: Triad label - `memberChains`: Array of 3 chain IDs - `seedFragment`: This chain's fragment of the triad seed - `pulseInterval`: Seconds between rotations - **Returns:** None - **Usage:** ```javascript await quantumMeshShield.registerTriad("TriadA", [137, 1, 42161], seedFragment, 3600); ``` - **Description:** Registers a new triad with 3 member chains. Initializes epoch 0. - **Event:** `MeshSync` ##### `rotate(bytes32 triadId)` - Rotate Triad - **Access:** External - **Parameters:** `triadId` - Triad ID - **Returns:** New epoch number - **Usage:** ```javascript const newEpoch = await quantumMeshShield.rotate(triadId); ``` - **Description:** Auto-rotates triad secret if new epoch has arrived. Always pings decoys for noise cover. - **Event:** `Pulse` ##### `rotateAll()` - Rotate All Triads - **Access:** External - **Parameters:** None - **Returns:** Number of triads rotated - **Usage:** ```javascript const rotated = await quantumMeshShield.rotateAll(); ``` - **Description:** Rotates all registered triads. ##### `verifyTriad(bytes32 triadId, bytes32 proof)` - Verify Triad - **Access:** External - **Parameters:** - `triadId`: Triad ID - `proof`: Secret proof to verify - **Returns:** Whether proof is valid - **Usage:** ```javascript const valid = await quantumMeshShield.verifyTriad(triadId, proof); ``` - **Description:** Verifies triad secret proof. Auto-rotates first. Accepts current or previous epoch (grace window). - **Event:** `Verified` ##### `verifyMesh(bytes32[] calldata triadProofs, bytes32[] calldata proofs)` - Verify Mesh - **Access:** External - **Parameters:** - `triadProofs`: Array of triad IDs - `proofs`: Array of proofs - **Returns:** Whether all proofs are valid - **Usage:** ```javascript const valid = await quantumMeshShield.verifyMesh(triadIds, proofs); ``` - **Description:** Verifies mesh of multiple triads. Chains proofs together for unified verification. ##### `updateSeedFragment(bytes32 triadId, bytes32 newFragment)` - Update Seed Fragment - **Access:** External (architect only) - **Parameters:** - `triadId`: Triad ID - `newFragment`: New seed fragment - **Returns:** None - **Usage:** ```javascript await quantumMeshShield.updateSeedFragment(triadId, newFragment); ``` - **Description:** Updates seed fragment for a triad. Forces rotation with new seed. ##### `updatePulseInterval(bytes32 triadId, uint256 newInterval)` - Update Pulse Interval - **Access:** External (architect only) - **Parameters:** - `triadId`: Triad ID - `newInterval`: New pulse interval - **Returns:** None - **Usage:** ```javascript await quantumMeshShield.updatePulseInterval(triadId, newInterval); ``` - **Description:** Updates pulse interval for a triad. ##### `deactivateTriad(bytes32 triadId)` - Deactivate Triad - **Access:** External (architect only) - **Parameters:** `triadId` - Triad ID - **Returns:** None - **Usage:** ```javascript await quantumMeshShield.deactivateTriad(triadId); ``` - **Description:** Deactivates a triad and clears its epochs. ##### `ping()` - Ping Decoys - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await quantumMeshShield.ping(); ``` - **Description:** External decoy pinger - anyone can call to add noise to chain. Emits fake Pulse events to blend with real ones. - **Event:** `DecoyPing` ##### `getHarmonicPulse()` - Get Harmonic Pulse - **Access:** External View - **Parameters:** None - **Returns:** Harmonic pulse in milliseconds - **Usage:** ```javascript const pulse = await quantumMeshShield.getHarmonicPulse(); ``` ##### `getTriadCount()` - Get Triad Count - **Access:** External View - **Parameters:** None - **Returns:** Number of triads - **Usage:** ```javascript const count = await quantumMeshShield.getTriadCount(); ``` ##### `getDecoyCount()` - Get Decoy Count - **Access:** External View - **Parameters:** None - **Returns:** Number of decoy channels - **Usage:** ```javascript const count = await quantumMeshShield.getDecoyCount(); ``` ##### `getCurrentEpoch(bytes32 triadId)` - Get Current Epoch - **Access:** External View - **Parameters:** `triadId` - Triad ID - **Returns:** Current epoch number - **Usage:** ```javascript const epoch = await quantumMeshShield.getCurrentEpoch(triadId); ``` ##### `getEpochInfo(bytes32 triadId)` - Get Epoch Info - **Access:** External View - **Parameters:** `triadId` - Triad ID - **Returns:** Epoch number, rotated at block, rotated at time - **Usage:** ```javascript const info = await quantumMeshShield.getEpochInfo(triadId); ``` ##### `getMeshStatus()` - Get Mesh Status - **Access:** External View - **Parameters:** None - **Returns:** Chain ID, number of triads, number of decoys, rotations, verifications, mesh proof count, block time - **Usage:** ```javascript const status = await quantumMeshShield.getMeshStatus(); ``` #### Profitability Applications 1. **Triad-Mesh Security:** 9 overlapping triads across 13 chains for distributed security. 2. **Auto-Rotating Secrets:** Secrets rotate on harmonic pulse synced to block rhythm. 3. **Forward-Secure:** Epoch N cannot derive epoch N+1 without seed. 4. **Decoy Channels:** Noise emission to obscure real secret rotations. 5. **Grace Window:** Previous epoch valid during overlap for smooth transitions. --- ### LiFoNel (Living Fiber) **Purpose:** LiFoNel — Living Fiber Operational Network (Emergent Layer). Autonomous root system for the dark fiber mesh network. Deployed identically to every chain. Seeds grow when queried — lazy derivation. No pre-computation. The forest grows on demand. Capabilities: 168³ XOR dark fiber key derivation (lazy, gas-efficient), Vortex math chain alignment (1-2-4-8-7-5 outer / 3-6 inner / 9 axis), Polarity surplus tracking (inward/outward under both calculi), Self-expansion via CREATE2 (can lay new fiber autonomously), Sensor array: monitors all registered contracts, Processing float: superposition state buffer, Uncle Guido enforcement: rate limits, anomaly bans. **Deployed On:** Polygon, Ethereum, Arbitrum, Optimism, Base, BSC, Avalanche (7 chains) #### Functions ##### `awaken()` - Awaken - **Access:** External (architect only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await liFoNel.awaken(); ``` - **Description:** Brings the LiFoNel to life. Computes initial float. C(14,3) = 364 possible triads, this chain participates in C(13,2) = 78. - **Event:** `Awakened` ##### `triadId(uint256 a, uint256 b, uint256 c)` - Get Triad ID - **Access:** External Pure - **Parameters:** - `a`: Chain A - `b`: Chain B - `c`: Chain C - **Returns:** Triad ID (sorted) - **Usage:** ```javascript const tId = await liFoNel.triadId(chainA, chainB, chainC); ``` - **Description:** Computes triad ID from three chain IDs (sorted). ##### `deriveTriadSeed(uint256 a, uint256 b, uint256 c)` - Derive Triad Seed - **Access:** External View - **Parameters:** - `a`: Chain A - `b`: Chain B - `c`: Chain C - **Returns:** Band seed, cable seed, route seed - **Usage:** ```javascript const [bandSeed, cableSeed, routeSeed] = await liFoNel.deriveTriadSeed(chainA, chainB, chainC); ``` - **Description:** Derives triad seeds for band, cable, and route layers. ##### `deriveKey(uint256 chainA, uint256 chainB, uint256 chainC, uint8 route, uint8 cable, uint8 band)` - Derive Key - **Access:** External View (alive only) - **Parameters:** - `chainA`: Chain A - `chainB`: Chain B - `chainC`: Chain C - `route`: Route index (0-167) - `cable`: Cable index (0-167) - `band`: Band index (0-167) - **Returns:** Derived XOR key - **Usage:** ```javascript const key = await liFoNel.deriveKey(chainA, chainB, chainC, route, cable, band); ``` - **Description:** Derives any single key in the 168³ space. Pure math, zero storage. Lazy derivation. ##### `verifyFiber(uint256 chainA, uint256 chainB, uint256 chainC, uint8 route, uint8 cable, uint8 band, bytes32 claimedKey)` - Verify Fiber - **Access:** External View (alive only) - **Parameters:** - `chainA`: Chain A - `chainB`: Chain B - `chainC`: Chain C - `route`: Route index - `cable`: Cable index - `band`: Band index - `claimedKey`: Claimed key to verify - **Returns:** Whether key is valid - **Usage:** ```javascript const valid = await liFoNel.verifyFiber(chainA, chainB, chainC, route, cable, band, claimedKey); ``` - **Description:** Verifies a key belongs to a specific position in the mesh. ##### `vortexRelation(uint256 chainA, uint256 chainB)` - Vortex Relation - **Access:** External View - **Parameters:** - `chainA`: Chain A - `chainB`: Chain B - **Returns:** Sum root, product root, dynamic - **Usage:** ```javascript const [sumRoot, productRoot, dynamic] = await liFoNel.vortexRelation(chainA, chainB); ``` - **Description:** Calculates vortex relation between two chains. Dynamic can be SINGULARITY, RESONANCE, HARMONIC, IDENTITY, or FLOW. ##### `triadVortexSum(uint256 a, uint256 b, uint256 c)` - Triad Vortex Sum - **Access:** External View - **Parameters:** - `a`: Chain A - `b`: Chain B - `c`: Chain C - **Returns:** Sum, is primary triangle - **Usage:** ```javascript const [sum, isPrimary] = await liFoNel.triadVortexSum(chainA, chainB, chainC); ``` - **Description:** Calculates triad vortex sum. Primary triangle: Polygon(9)+Tron(3)+Xahau(6) = 18→9. ##### `gearRatio(uint256 chainA, uint256 chainB)` - Gear Ratio - **Access:** External View - **Parameters:** - `chainA`: Chain A - `chainB`: Chain B - **Returns:** Ratio (fixed-point ×1000), mesh milliseconds - **Usage:** ```javascript const [ratio, meshMs] = await liFoNel.gearRatio(chainA, chainB); ``` - **Description:** Calculates gear ratio based on block times of two chains. ##### `registerSensor(address target, string calldata label)` - Register Sensor - **Access:** External (architect only) - **Parameters:** - `target`: Target contract address - `label`: Sensor label - **Returns:** None - **Usage:** ```javascript await liFoNel.registerSensor(contractAddress, "MyContract"); ``` - **Description:** Registers a sensor to monitor a contract on this chain. - **Event:** `SensorRegistered` ##### `pingSensor(bytes32 sensorId)` - Ping Sensor - **Access:** External (alive only) - **Parameters:** `sensorId` - Sensor ID - **Returns:** Whether target is healthy (has code) - **Usage:** ```javascript const healthy = await liFoNel.pingSensor(sensorId); ``` - **Description:** Pings a sensor to check if target contract is alive (has code). - **Event:** `SensorPinged` ##### `pingAll()` - Ping All Sensors - **Access:** External (alive only) - **Parameters:** None - **Returns:** Number of healthy sensors - **Usage:** ```javascript const healthyCount = await liFoNel.pingAll(); ``` - **Description:** Pings all registered sensors and returns healthy count. ##### `recordInward(uint256 volume)` - Record Inward - **Access:** External (alive only) - **Parameters:** `volume` - Volume received - **Returns:** None - **Usage:** ```javascript await liFoNel.recordInward(volume); ``` - **Description:** Records inward data/value from other chains. Recomputes surplus. - **Event:** `PolarityShift` ##### `recordOutward(uint256 volume)` - Record Outward - **Access:** External (alive only) - **Parameters:** `volume` - Volume sent - **Returns:** None - **Usage:** ```javascript await liFoNel.recordOutward(volume); ``` - **Description:** Records outward data/value to other chains. Recomputes surplus. - **Event:** `PolarityShift` ##### `updateFloat()` - Update Float - **Access:** External (alive only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await liFoNel.updateFloat(); ``` - **Description:** Updates processing float (superposition buffer). Increments pulse count. - **Event:** `Pulse` ##### `layFiber(bytes memory bytecode, bytes32 salt, string calldata purpose)` - Lay Fiber - **Access:** External (architect only, alive only) - **Parameters:** - `bytecode`: Contract bytecode - `salt`: CREATE2 salt - `purpose`: Purpose description - **Returns:** Deployed address - **Usage:** ```javascript const deployed = await liFoNel.layFiber(bytecode, salt, "NewExtension"); ``` - **Description:** Deploys new fiber extension via CREATE2. Self-expansion capability. - **Event:** `FiberLaid`, `RootGrew` ##### `predictFiber(bytes memory bytecode, bytes32 salt)` - Predict Fiber - **Access:** External View - **Parameters:** - `bytecode`: Contract bytecode - `salt`: CREATE2 salt - **Returns:** Predicted address - **Usage:** ```javascript const predicted = await liFoNel.predictFiber(bytecode, salt); ``` - **Description:** Predicts address of a new fiber extension before deployment. ##### `enforce(address target, bool ban)` - Enforce - **Access:** External (architect only) - **Parameters:** - `target`: Target address - `ban`: Whether to ban - **Returns:** None - **Usage:** ```javascript await liFoNel.enforce(targetAddress, true); ``` - **Description:** Manually enforces ban on an address. - **Event:** `Enforced` ##### `transferArchitect(address newArchitect)` - Transfer Architect - **Access:** External (architect only) - **Parameters:** `newArchitect` - New architect address - **Returns:** None - **Usage:** ```javascript await liFoNel.transferArchitect(newArchitect); ``` - **Description:** Transfers architect role to new address. ##### `getStatus()` - Get Status - **Access:** External View - **Parameters:** None - **Returns:** Alive status, chain ID, vortex, sensor count, extension count, surplus, inverse surplus, epoch, probes, bans - **Usage:** ```javascript const status = await liFoNel.getStatus(); ``` ##### `getSensorCount()` - Get Sensor Count - **Access:** External View - **Parameters:** None - **Returns:** Number of sensors - **Usage:** ```javascript const count = await liFoNel.getSensorCount(); ``` ##### `getExtensionCount()` - Get Extension Count - **Access:** External View - **Parameters:** None - **Returns:** Number of fiber extensions - **Usage:** ```javascript const count = await liFoNel.getExtensionCount(); ``` #### Profitability Applications 1. **168³ XOR Dark Fiber:** 4,741,632 keys per triad with lazy derivation (zero storage). 2. **Vortex Math Alignment:** Chain alignment using 1-2-4-8-7-5 outer / 3-6 inner / 9 axis vortex positions. 3. **Polarity Surplus Tracking:** Inward/outward tracking under standard and inverse polarity calculi. 4. **Self-Expansion:** CREATE2 deployment for autonomous fiber laying. 5. **Sensor Array:** Monitors all registered contracts for health and activity. --- ### G9GenesisWire (Crown Contract) **Purpose:** G9GenesisWire — The Crown Contract (Generation 9). Wires ALL features from G1→G8 through Polygon mainframe. Proactive + preemptive. Self-defending. Self-improving. Autonomous. Friendly unless fucked with. Generation Map: G1 (Foundation - OliveOil, Fulcrum, NineFormsOfCapital, ElitePerception), G2 (Finance - VinoPerpetuals, CredibilityScoring, ContraInsurance, BankingSyndicates), G3 (Infrastructure - StargatePortal, ZeroPointEnergy, VeniceGasStation, FundingObfuscation), G4 (Intelligence - OmniChainSingularity, GEN6_UnifiedPlatform, FlashLoanBootstrap), G5 (Expansion - SharedSecret ring, SovereignSatellite multi-chain, CryptographicEssenceLab), G6 (Sovereignty - SovereignOutpost, PlungerMechanism, UnicodeSteganography, RecursiveFlashFolding), G7 (Physics - CovenantGrid, FibonacciShield, AlternatingEndianBridge, BitcoinAnchor), G8 (Loud Launch - PolygonMasterPulse, UBH168Witness, MEVFlashLane, OracleSyndication, GhostIssuer, SecondaryCreditMesh, ShadowSpreadArb, XORNetworkCoding), G9 (Genesis Wire - LiFoNel, LightFiber, Fortification, QuantumMeshShield, DarkFiber, 14-Sense Array, Cross-Chain Mesh, Autonomous Evolution). **Deployed On:** Polygon (mainframe only) #### Functions ##### `registerContract(address addr, string calldata name, uint8 generation, uint8 category, uint256 chainId)` - Register Contract - **Access:** External (architect only) - **Parameters:** - `addr`: Contract address - `name`: Contract name - `generation`: Generation (1-9) - `category`: Category (0-8) - `chainId`: Chain ID - **Returns:** None - **Usage:** ```javascript await g9GenesisWire.registerContract(address, "ContractName", 1, 0, 137); ``` - **Description:** Registers a contract in the generation registry with its generation and category. - **Event:** `ContractRegistered` ##### `registerBatch(address[] calldata addrs, string[] calldata names, uint8[] calldata gens, uint8[] calldata cats, uint256 chainId)` - Register Batch - **Access:** External (architect only) - **Parameters:** - `addrs`: Array of contract addresses - `names`: Array of contract names - `gens`: Array of generations - `cats`: Array of categories - `chainId`: Chain ID - **Returns:** None - **Usage:** ```javascript await g9GenesisWire.registerBatch(addresses, names, generations, categories, 137); ``` - **Description:** Registers multiple contracts in batch for efficiency. ##### `wireChain(uint256 chainId, string calldata name, address lifonel, address fort, address lightFiber, address qMesh, address sharedSec)` - Wire Chain - **Access:** External (architect only) - **Parameters:** - `chainId`: Chain ID - `name`: Chain name - `lifonel`: LiFoNel address - `fort`: Fortification address - `lightFiber`: LightFiber address - `qMesh`: QuantumMeshShield address - `sharedSec`: SharedSecret address - **Returns:** None - **Usage:** ```javascript await g9GenesisWire.wireChain(1, "Ethereum", lifonel, fort, lightFiber, qMesh, sharedSec); ``` - **Description:** Wires a chain into the mesh with all core contract addresses. - **Event:** `ChainWired` ##### `reportThreat(ThreatLevel level, address target, bytes32 senseData)` - Report Threat - **Access:** External (architect only) - **Parameters:** - `level`: Threat level (NONE, WATCH, WARN, CRITICAL, HOSTILE) - `target`: Target address - `senseData`: Sense data from sensors - **Returns:** None - **Usage:** ```javascript await g9GenesisWire.reportThreat(ThreatLevel.CRITICAL, targetAddress, senseData); ``` - **Description:** Reports a threat. Auto-responds to CRITICAL and HOSTILE levels. - **Event:** `ThreatDetected`, `ResponseExecuted`, `DefenseActivated` ##### `manualRespond(uint256 threatId, string calldata action)` - Manual Respond - **Access:** External (architect only) - **Parameters:** - `threatId`: Threat ID - `action`: Action to take - **Returns:** None - **Usage:** ```javascript await g9GenesisWire.manualRespond(threatId, "Ban address"); ``` - **Description:** Manually responds to a threat with specified action. - **Event:** `ResponseExecuted` ##### `evolve(string calldata description)` - Evolve - **Access:** External (architect only) - **Parameters:** `description` - Evolution description - **Returns:** None - **Usage:** ```javascript await g9GenesisWire.evolve("System upgrade"); ``` - **Description:** Triggers self-improvement evolution. Updates system state hash. - **Event:** `Evolved` ##### `pulse()` - Pulse - **Access:** External (architect only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await g9GenesisWire.pulse(); ``` - **Description:** Fires heartbeat pulse to all chains. Updates pulse time on all chain references. - **Event:** `PulseFired` ##### `callContract(address target, bytes calldata data)` - Call Contract - **Access:** External (architect only) - **Parameters:** - `target`: Target contract - `data`: Call data - **Returns:** Success, return data - **Usage:** ```javascript const [success, returnData] = await g9GenesisWire.callContract(target, callData); ``` - **Description:** Calls any contract with arbitrary data (cross-chain capability). ##### `markFortified(address addr, uint256 chainId)` - Mark Fortified - **Access:** External (architect only) - **Parameters:** - `addr`: Contract address - `chainId`: Chain ID - **Returns:** None - **Usage:** ```javascript await g9GenesisWire.markFortified(address, 137); ``` - **Description:** Marks a contract as having 14-sense coverage from Fortification. ##### `getRegistryCount()` - Get Registry Count - **Access:** External View - **Parameters:** None - **Returns:** Number of registered contracts - **Usage:** ```javascript const count = await g9GenesisWire.getRegistryCount(); ``` ##### `getChainCount()` - Get Chain Count - **Access:** External View - **Parameters:** None - **Returns:** Number of wired chains - **Usage:** ```javascript const count = await g9GenesisWire.getChainCount(); ``` ##### `getThreatCount()` - Get Threat Count - **Access:** External View - **Parameters:** None - **Returns:** Number of threats logged - **Usage:** ```javascript const count = await g9GenesisWire.getThreatCount(); ``` ##### `getEvolutionCount()` - Get Evolution Count - **Access:** External View - **Parameters:** None - **Returns:** Number of evolutions - **Usage:** ```javascript const count = await g9GenesisWire.getEvolutionCount(); ``` ##### `getSystemHealth()` - Get System Health - **Access:** External View - **Parameters:** None - **Returns:** Contracts, chains wired, threats, responses, defenses, evolutions, pulses, state hash - **Usage:** ```javascript const health = await g9GenesisWire.getSystemHealth(); ``` ##### `getGenerationCounts()` - Get Generation Counts - **Access:** External View - **Parameters:** None - **Returns:** Array of 9 counts (one per generation) - **Usage:** ```javascript const counts = await g9GenesisWire.getGenerationCounts(); ``` ##### `transferArchitect(address newArchitect)` - Transfer Architect - **Access:** External (architect only) - **Parameters:** `newArchitect` - New architect address - **Returns:** None - **Usage:** ```javascript await g9GenesisWire.transferArchitect(newArchitect); ``` #### Profitability Applications 1. **Generation Wiring:** Wires all features from G1→G8 through Polygon mainframe for unified control. 2. **Autonomous Response:** Auto-responds to CRITICAL and HOSTILE threats with bans and alerts. 3. **Self-Improvement:** Evolution system for continuous system improvement. 4. **Cross-Chain Mesh:** Wires chains together with LiFoNel, Fortification, QuantumMeshShield, and SharedSecret. 5. **Pulse System:** Heartbeat to all chains for synchronization and health monitoring. --- ### Fortification (14-Sense Array) **Purpose:** Fortification — 14-Sense Sensor Array + Cross-Chain Mesh Fortification. Deployed to every EVM chain. Links to all local contracts. Connects back to Polygon mainframe + Ethereum anchor. THE 14 SENSES: Physical (7) — Sight (bytecode integrity), Hearing (event emission), Touch (interaction frequency), Taste (value assessment), Smell (anomaly detection), Proprio (self-state integrity), Balance (cross-chain sync). Psychic (7) — Precog (predictive threat), Telepathy (cross-chain message verification), Clairvoy (deep state reading), Psychom (history pattern), Empathy (network health), Intuition (heuristic pattern), Astral (meta-awareness). **Deployed On:** Polygon, Ethereum, Arbitrum, Optimism, Base, BSC, Avalanche (7 chains) #### Functions ##### `addWatch(address target, string calldata label)` - Add Watch - **Access:** External (architect only) - **Parameters:** - `target`: Target contract address - `label`: Label for target - **Returns:** None - **Usage:** ```javascript await fortification.addWatch(contractAddress, "MyContract"); ``` - **Description:** Adds a contract to the watch list with its code hash and initial state. ##### `addPeer(uint256 chainId, address fort, address lif)` - Add Peer - **Access:** External (architect only) - **Parameters:** - `chainId`: Peer chain ID - `fort`: Fortification address on peer - `lif`: LiFoNel address on peer - **Returns:** None - **Usage:** ```javascript await fortification.addPeer(1, fortAddress, lifonelAddress); ``` - **Description:** Adds a cross-chain peer for synchronization. ##### `senseSight(address target)` - Sense Sight - **Access:** External - **Parameters:** `target` - Target address - **Returns:** Sense reading - **Usage:** ```javascript const reading = await fortification.senseSight(target); ``` - **Description:** 1. SIGHT — bytecode integrity check. Detects contract destruction or code mutation. - **Event:** `ThreatDetected` (if threat) ##### `senseHearing(address target)` - Sense Hearing - **Access:** External - **Parameters:** `target` - Target address - **Returns:** Sense reading - **Usage:** ```javascript const reading = await fortification.senseHearing(target); ``` - **Description:** 2. HEARING — event activity detection (approximated by code size). ##### `senseTouch(address target)` - Sense Touch - **Access:** External - **Parameters:** `target` - Target address - **Returns:** Sense reading - **Usage:** ```javascript const reading = await fortification.senseTouch(target); ``` - **Description:** 3. TOUCH — interaction frequency tracking. ##### `senseTaste(address target)` - Sense Taste - **Access:** External - **Parameters:** `target` - Target address - **Returns:** Sense reading - **Usage:** ```javascript const reading = await fortification.senseTaste(target); ``` - **Description:** 4. TASTE — balance change detection. Alerts if balance drops >50%. - **Event:** `ThreatDetected` (if threat) ##### `senseSmell(address target)` - Sense Smell - **Access:** External - **Parameters:** `target` - Target address - **Returns:** Sense reading - **Usage:** ```javascript const reading = await fortification.senseSmell(target); ``` - **Description:** 5. SMELL — anomaly detection based on interaction timing patterns. ##### `senseProprio(address target)` - Sense Proprioception - **Access:** External - **Parameters:** `target` - Target address - **Returns:** Sense reading - **Usage:** ```javascript const reading = await fortification.senseProprio(target); ``` - **Description:** 6. PROPRIOCEPTION — self-state integrity via verifySecret check. - **Event:** `ThreatDetected` (if threat) ##### `senseBalance(address target)` - Sense Balance - **Access:** External - **Parameters:** `target` - Target address - **Returns:** Sense reading - **Usage:** ```javascript const reading = await fortification.senseBalance(target); ``` - **Description:** 7. BALANCE — cross-chain sync status via floatEpoch check. ##### `sensePrecog()` - Sense Precognition - **Access:** External - **Parameters:** None - **Returns:** Sense reading - **Usage:** ```javascript const reading = await fortification.sensePrecog(); ``` - **Description:** 8. PRECOGNITION — gas spike / threat prediction. Alerts if basefee > 50 gwei. - **Event:** `ThreatDetected` (if threat) ##### `senseTelepathy(uint256 chainId, uint256 reportedEpoch, bytes32 reportedFloat)` - Sense Telepathy - **Access:** External (architect only) - **Parameters:** - `chainId`: Chain ID - `reportedEpoch`: Reported epoch - `reportedFloat`: Reported float root - **Returns:** Sense reading - **Usage:** ```javascript const reading = await fortification.senseTelepathy(chainId, epoch, floatRoot); ``` - **Description:** 9. TELEPATHY — cross-chain message verification. Detects epoch regression. - **Event:** `PeerSynced`, `ThreatDetected` (if threat) ##### `senseClairvoy(address target, uint256 slot)` - Sense Clairvoyance - **Access:** External View - **Parameters:** - `target`: Target address - `slot`: Storage slot - **Returns:** Sense reading - **Usage:** ```javascript const reading = await fortification.senseClairvoy(target, slot); ``` - **Description:** 10. CLAIRVOYANCE — deep state reading (storage slot analysis). ##### `sensePsychom(address target)` - Sense Psychometry - **Access:** External - **Parameters:** `target` - Target address - **Returns:** Sense reading - **Usage:** ```javascript const reading = await fortification.sensePsychom(target); ``` - **Description:** 11. PSYCHOMETRY — history pattern reading (tx frequency analysis). ##### `senseEmpathy(address target)` - Sense Empathy - **Access:** External - **Parameters:** `target` - Target address - **Returns:** Sense reading - **Usage:** ```javascript const reading = await fortification.senseEmpathy(target); ``` - **Description:** 12. EMPATHY — peer contract liveness check via extcodesize. - **Event:** `ThreatDetected` (if threat) ##### `senseIntuition(address target)` - Sense Intuition - **Access:** External - **Parameters:** `target` - Target address - **Returns:** Sense reading - **Usage:** ```javascript const reading = await fortification.senseIntuition(target); ``` - **Description:** 13. INTUITION — heuristic anomaly scoring combining multiple signals. - **Event:** `ThreatDetected` (if threat) ##### `senseAstral()` - Sense Astral - **Access:** External - **Parameters:** None - **Returns:** Sense reading - **Usage:** ```javascript const reading = await fortification.senseAstral(); ``` - **Description:** 14. ASTRAL — meta-awareness, recursive check of all senses. Computes astral root from all sense readings. Limited to 15 contracts for gas efficiency on faster blocks. - **Event:** `FullScan` ##### `getWatchCount()` - Get Watch Count - **Access:** External View - **Parameters:** None - **Returns:** Number of watched contracts - **Usage:** ```javascript const count = await fortification.getWatchCount(); ``` ##### `getPeerCount()` - Get Peer Count - **Access:** External View - **Parameters:** None - **Returns:** Number of cross-chain peers - **Usage:** ```javascript const count = await fortification.getPeerCount(); ``` ##### `getStatus()` - Get Status - **Access:** External View - **Parameters:** None - **Returns:** Chain, watches, peer count, scans, alerts, criticals, astral root, epoch - **Usage:** ```javascript const status = await fortification.getStatus(); ``` ##### `getSenseReading(address target, uint8 senseId)` - Get Sense Reading - **Access:** External View - **Parameters:** - `target`: Target address - `senseId`: Sense ID (1-14) - **Returns:** Sense reading - **Usage:** ```javascript const reading = await fortification.getSenseReading(target, senseId); ``` ##### `transferArchitect(address newArchitect)` - Transfer Architect - **Access:** External (architect only) - **Parameters:** `newArchitect` - New architect address - **Returns:** None - **Usage:** ```javascript await fortification.transferArchitect(newArchitect); ``` #### Profitability Applications 1. **14-Sense Array:** Comprehensive sensor system with 7 physical and 7 psychic senses. 2. **Cross-Chain Mesh:** Links to Polygon mainframe and Ethereum anchor for multi-chain security. 3. **Threat Detection:** Automated detection of contract destruction, code mutation, balance drains, and anomalies. 4. **Meta-Awareness:** Astral sense recursively checks all senses for system-wide health. 5. **Gas Efficiency:** Limited scan to 15 contracts for faster block times (Polygon 2s hard fork). --- ### GhostFactory (Stateless Network) **Purpose:** GhostFactory — On-Chain Self-Extracting Archive (SFX) using Transient Storage (EIP-1153). Expands 168-bit genomic seeds into full bytecode in transient memory. Contracts exist only transiently - evaporate at end of transaction. Zero storage gas - "Below Board" forensic obfuscation. UBH168 meets FCP168 with Transient Storage for Stateless Ghost Network. **Deployed On:** Polygon #### Functions ##### `expandSeed(bytes32 seed, uint256 targetSize)` - Expand Seed - **Access:** External Pure - **Parameters:** - `seed`: 168-bit genomic seed - `targetSize`: Target size in bytes - **Returns:** Expanded bytes - **Usage:** ```javascript const expanded = await ghostFactory.expandSeed(seed, 1024); ``` - **Description:** Expands 168-bit seed into full-size XOR key using LFSR (Linear Feedback Shift Register). ##### `xorBytes(bytes memory a, bytes memory b)` - XOR Bytes - **Access:** External Pure - **Parameters:** - `a`: First bytes - `b`: Second bytes - **Returns:** XOR result - **Usage:** ```javascript const result = await ghostFactory.xorBytes(bytesA, bytesB); ``` - **Description:** Performs XOR operation on two byte arrays. ##### `registerSeed(bytes32 seed, bytes32 bytecodeHash)` - Register Seed - **Access:** External (architect only) - **Parameters:** - `seed`: Genomic seed - `bytecodeHash`: Expected bytecode hash - **Returns:** None - **Usage:** ```javascript await ghostFactory.registerSeed(seed, bytecodeHash); ``` - **Description:** Registers a seed with its expected bytecode hash in transient storage. - **Event:** `SeedRegistered` ##### `expandToTransient(bytes32 seed, bytes memory compressedBytecode)` - Expand to Transient - **Access:** External - **Parameters:** - `seed`: Genomic seed - `compressedBytecode`: Compressed bytecode - **Returns:** None - **Usage:** ```javascript await ghostFactory.expandToTransient(seed, compressedBytecode); ``` - **Description:** Expands seed and writes bytecode to transient storage (evaporates at tx end). - **Event:** `SeedExpanded` ##### `executeGhost(bytes32 seed, bytes memory compressedBytecode, bytes memory callData)` - Execute Ghost - **Access:** External Payable - **Parameters:** - `seed`: Genomic seed - `compressedBytecode`: Compressed bytecode - `callData`: Call data for execution - **Returns:** Return data, success - **Usage:** ```javascript const [returnData, success] = await ghostFactory.executeGhost(seed, compressedBytecode, callData); ``` - **Description:** Executes contract from transient memory via delegatecall. Creates implementation via CREATE2, executes statelessly. Bytecode evaporates at end of transaction. - **Event:** `GhostExecuted` ##### `executeStatelessSwap(bytes32 seed, bytes memory compressedBytecode, address tokenIn, address tokenOut, uint256 amountIn, uint256 amountOutMin)` - Execute Stateless Swap - **Access:** External Payable - **Parameters:** - `seed`: Genomic seed - `compressedBytecode`: Compressed bytecode - `tokenIn`: Input token - `tokenOut`: Output token - `amountIn`: Input amount - `amountOutMin`: Minimum output amount - **Returns:** Success - **Usage:** ```javascript const success = await ghostFactory.executeStatelessSwap(seed, bytecode, tokenIn, tokenOut, amountIn, amountOutMin); ``` - **Description:** Executes a swap using a ghost contract that evaporates. Zero storage gas. ##### `getMasterSeed()` - Get Master Seed - **Access:** External View - **Parameters:** None - **Returns:** Master seed - **Usage:** ```javascript const seed = await ghostFactory.getMasterSeed(); ``` ##### `transferArchitect(address newArchitect)` - Transfer Architect - **Access:** External (architect only) - **Parameters:** `newArchitect` - New architect address - **Returns:** None - **Usage:** ```javascript await ghostFactory.transferArchitect(newArchitect); ``` #### Profitability Applications 1. **Transient Storage:** Zero storage gas - contracts evaporate at end of transaction. 2. **Genomic Seed Expansion:** 168-bit seeds expand to full bytecode via LFSR. 3. **Stateless Execution:** Execute contracts via delegatecall without permanent storage. 4. **Forensic Obfuscation:** "Below Board" obfuscation for privacy and security. 5. **Ghost Swaps:** Stateless swaps that leave no permanent trace. --- ### FusionReactor (Transient Fusion) **Purpose:** FusionReactor — Fusion Reactor with EIP-1153 Transient Storage. Lenses project their fragments into transient memory, fusing into complete hologram. HolographicAMM reads fused state and executes swaps. Parallel State Construction - bypasses gas limits by splitting logic into Lenses. UBH168 meets FCP168 with Transient Storage Fusion Architecture. **Deployed On:** Polygon #### Functions ##### `registerLens(bytes32 lensId, address lensAddress, FragmentType fragmentType)` - Register Lens - **Access:** External (architect only) - **Parameters:** - `lensId`: Lens ID - `lensAddress`: Lens contract address - `fragmentType`: Fragment type (SWAP_ROUTING, LIQUIDITY_STATE, TRUST_MATRIX, SLIPPAGE_PARAMS, FEE_SCHEDULE, SECURITY_CHECK) - **Returns:** None - **Usage:** ```javascript await fusionReactor.registerLens(lensId, lensAddress, FragmentType.SWAP_ROUTING); ``` - **Description:** Registers a Lens that projects a specific fragment into transient memory. - **Event:** `LensRegistered` ##### `projectFragment(bytes32 lensId, bytes memory fragmentData)` - Project Fragment - **Access:** External (light source only) - **Parameters:** - `lensId`: Lens ID - `fragmentData`: Fragment data to project - **Returns:** None - **Usage:** ```javascript await fusionReactor.projectFragment(lensId, fragmentData); ``` - **Description:** Light Source triggers Lenses to project fragments into transient memory. - **Event:** `LensProjected` ##### `fuseState()` - Fuse State - **Access:** External (light source only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await fusionReactor.fuseState(); ``` - **Description:** Fuses all lens fragments into complete hologram in transient memory. - **Event:** `StateFused` ##### `readFusedState(uint256 offset, uint256 size)` - Read Fused State - **Access:** External View (holographic AMM only) - **Parameters:** - `offset`: Offset in fused state - `size`: Size to read - **Returns:** Fused state data - **Usage:** ```javascript const data = await fusionReactor.readFusedState(offset, size); ``` - **Description:** HolographicAMM reads the fused state from transient memory. ##### `triggerAllLenses(bytes memory seed)` - Trigger All Lenses - **Access:** External (light source only) - **Parameters:** `seed` - Seed for lens triggering - **Returns:** None - **Usage:** ```javascript await fusionReactor.triggerAllLenses(seed); ``` - **Description:** Light Source triggers all Lenses simultaneously to project fragments. Stores seed in transient storage. ##### `getLensCount()` - Get Lens Count - **Access:** External View - **Parameters:** None - **Returns:** Number of registered lenses - **Usage:** ```javascript const count = await fusionReactor.getLensCount(); ``` ##### `getLens(bytes32 lensId)` - Get Lens - **Access:** External View - **Parameters:** `lensId` - Lens ID - **Returns:** Lens address, fragment key, active status, last projection - **Usage:** ```javascript const [address, key, active, lastProjection] = await fusionReactor.getLens(lensId); ``` ##### `updateLightSource(address newLightSource)` - Update Light Source - **Access:** External (architect only) - **Parameters:** `newLightSource` - New light source address - **Returns:** None - **Usage:** ```javascript await fusionReactor.updateLightSource(newLightSource); ``` - **Description:** Updates the Light Source (orchestrator) address. - **Event:** `LightSourceUpdated` ##### `updateHolographicAMM(address newAMM)` - Update Holographic AMM - **Access:** External (architect only) - **Parameters:** `newAMM` - New Holographic AMM address - **Returns:** None - **Usage:** ```javascript await fusionReactor.updateHolographicAMM(newAMM); ``` - **Description:** Updates the Holographic AMM address. - **Event:** `HolographicAMMUpdated` ##### `transferArchitect(address newArchitect)` - Transfer Architect - **Access:** External (architect only) - **Parameters:** `newArchitect` - New architect address - **Returns:** None - **Usage:** ```javascript await fusionReactor.transferArchitect(newArchitect); ``` #### Profitability Applications 1. **Transient Storage:** Zero storage gas for fragment projection and fusion. 2. **Parallel State Construction:** Bypasses gas limits by splitting logic into Lenses. 3. **Fragment Fusion:** Lenses project fragments that fuse into complete hologram. 4. **Holographic AMM Integration:** AMM reads fused state to execute swaps. 5. **Modular Architecture:** Each Lens handles specific fragment type for modularity. --- ### GenomicSeedForge (Procedural Generation) **Purpose:** GenomicSeedForge — Procedural Generation Engine - Genomic Seed Forge. Mega complexity from a small activation. Takes a 168-bit UBH168 seed and Phase Tick parameters (Complexity, Resonance, XOR-Phase). Expands deterministically into unique holographic structures. One bit change = Avalanche Effect = 100% unique structure. UBH168 meets FCP168 - Zero Inversion Principle with Transient Storage. **Deployed On:** Polygon #### Functions ##### `generateStructure(bytes21 seed, PhaseTicks calldata phaseTicks)` - Generate Structure - **Access:** External - **Parameters:** - `seed`: 168-bit genomic seed - `phaseTicks`: Phase ticks (complexity 1-10, resonance 0-100, xorPhase 10-300) - **Returns:** Structure ID, structure hash - **Usage:** ```javascript const [structureId, structureHash] = await genomicSeedForge.generateStructure(seed, {complexity: 5, resonance: 50, xorPhase: 100}); ``` - **Description:** Expands 168-bit seed into holographic structure using Phase Ticks. Deterministic Fractal Unzip. - **Event:** `StructureGenerated` ##### `demonstrateAvalanche(bytes21 seed1, bytes21 seed2, PhaseTicks calldata phaseTicks)` - Demonstrate Avalanche - **Access:** External - **Parameters:** - `seed1`: First seed - `seed2`: Second seed (1 bit different) - `phaseTicks`: Phase ticks - **Returns:** Structure ID 1, structure ID 2, hamming distance, avalanche occurred - **Usage:** ```javascript const [id1, id2, distance, avalanche] = await genomicSeedForge.demonstrateAvalanche(seed1, seed2, phaseTicks); ``` - **Description:** Demonstrates how 1 bit change in seed creates completely different structure (avalanche effect). - **Event:** `AvalancheEffect` ##### `getStructure(bytes32 structureId)` - Get Structure - **Access:** External View - **Parameters:** `structureId` - Structure ID - **Returns:** Structure hash, node count, connection count, depth - **Usage:** ```javascript const [hash, nodeCount, connectionCount, depth] = await genomicSeedForge.getStructure(structureId); ``` ##### `getNodes(bytes32 structureId, uint256 offset, uint256 limit)` - Get Nodes - **Access:** External View - **Parameters:** - `structureId`: Structure ID - `offset`: Offset - `limit`: Limit - **Returns:** Array of nodes - **Usage:** ```javascript const nodes = await genomicSeedForge.getNodes(structureId, 0, 10); ``` ##### `batchGenerate(bytes21[] calldata seeds, PhaseTicks calldata phaseTicks)` - Batch Generate - **Access:** External - **Parameters:** - `seeds`: Array of seeds - `phaseTicks`: Phase ticks - **Returns:** Structure IDs, structure hashes - **Usage:** ```javascript const [structureIds, structureHashes] = await genomicSeedForge.batchGenerate(seeds, phaseTicks); ``` - **Description:** Generates multiple structures from different seeds with same Phase Ticks. ##### `getStructureCount()` - Get Structure Count - **Access:** External View - **Parameters:** None - **Returns:** Number of structures - **Usage:** ```javascript const count = await genomicSeedForge.getStructureCount(); ``` ##### `transferArchitect(address newArchitect)` - Transfer Architect - **Access:** External (architect only) - **Parameters:** `newArchitect` - New architect address - **Returns:** None - **Usage:** ```javascript await genomicSeedForge.transferArchitect(newArchitect); ``` #### Profitability Applications 1. **Procedural Generation:** Mega complexity from small 168-bit seed activation. 2. **Phase Tick Parameters:** Complexity, resonance, and XOR-phase control structure generation. 3. **Avalanche Effect:** 1 bit change creates 100% unique structure. 4. **Deterministic Expansion:** Fractal unzip creates deterministic holographic structures. 5. **Batch Generation:** Generate multiple structures efficiently with same phase ticks. --- ### LightFiber (Branch System) **Purpose:** LightFiber — The branch system — surface layer of the dark fiber network. Generates ephemeral wallet addresses from hash blocks, synchronized across all chains. Once used, wallets become permanent fiber channels. Hash Block Architecture: 32-byte key space, one byte position FIXED (watermark = 0x36), remaining 31 bytes derived from masterSeed × epoch × chainFormat. Unicode-enhanced: UTF-8 ⊕ UTF-16LE ⊕ UTF-16BE ⊕ UTF-32 folded. Scaling: Layers scale by golden ratio φ = 1.618..., clone threshold at presence ratio 1.168, groups expand in Fibonacci spiral. **Deployed On:** Polygon (mainframe) #### Functions ##### `generateEphemeralKey(uint8 chainFormat)` - Generate Ephemeral Key - **Access:** External (architect only) - **Parameters:** `chainFormat` - Chain format (EVM=1, TRON=2, XRP=3, COSMOS=4, NEAR=5, SUI=6) - **Returns:** Channel ID - **Usage:** ```javascript const channelId = await lightFiber.generateEphemeralKey(FMT_EVM); ``` - **Description:** Generates ephemeral key for specific chain format. Key has byte 11 fixed to 0x36 (36N9 signature). Unicode-enhanced with XOR fold of four encoding hashes. - **Event:** `ChannelCreated` ##### `advanceEpoch()` - Advance Epoch - **Access:** External (architect only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await lightFiber.advanceEpoch(); ``` - **Description:** Retires all active channels (they become permanent fiber). Updates presence and triggers scaling/clone logic. - **Event:** `EpochAdvanced`, `LayerScaled`, `GroupCloned` ##### `quarantineChannel(bytes32 channelId, string calldata reason)` - Quarantine Channel - **Access:** External (architect only) - **Parameters:** - `channelId`: Channel ID - `reason`: Quarantine reason - **Returns:** None - **Usage:** ```javascript await lightFiber.quarantineChannel(channelId, "Suspicious activity"); ``` - **Description:** Quarantines an active channel. - **Event:** `ChannelQuarantined` ##### `registerSatellite(uint256 chainId, address lifonelAddr)` - Register Satellite - **Access:** External (architect only) - **Parameters:** - `chainId`: Chain ID - `lifonelAddr`: LiFoNel address on satellite - **Returns:** None - **Usage:** ```javascript await lightFiber.registerSatellite(1, lifonelAddress); ``` - **Description:** Registers a satellite LiFoNel for cross-chain coordination. - **Event:** `SatelliteRegistered` ##### `getActiveCount()` - Get Active Count - **Access:** External View - **Parameters:** None - **Returns:** Number of active channels - **Usage:** ```javascript const count = await lightFiber.getActiveCount(); ``` ##### `getFiberCount()` - Get Fiber Count - **Access:** External View - **Parameters:** None - **Returns:** Number of retired (permanent fiber) channels - **Usage:** ```javascript const count = await lightFiber.getFiberCount(); ``` ##### `getQuarantinedCount()` - Get Quarantined Count - **Access:** External View - **Parameters:** None - **Returns:** Number of quarantined channels - **Usage:** ```javascript const count = await lightFiber.getQuarantinedCount(); ``` ##### `getSatelliteCount()` - Get Satellite Count - **Access:** External View - **Parameters:** None - **Returns:** Number of registered satellites - **Usage:** ```javascript const count = await lightFiber.getSatelliteCount(); ``` ##### `getFibonacciLayer(uint256 depth)` - Get Fibonacci Layer - **Access:** External View - **Parameters:** `depth` - Fibonacci depth (0-20) - **Returns:** Fibonacci value at depth - **Usage:** ```javascript const fibValue = await lightFiber.getFibonacciLayer(5); ``` ##### `getStatus()` - Get Status - **Access:** External View - **Parameters:** None - **Returns:** Epoch, layers, presence, group, clones, spiral, active, fiber, quarantined, satellites - **Usage:** ```javascript const status = await lightFiber.getStatus(); ``` ##### `transferArchitect(address newArchitect)` - Transfer Architect - **Access:** External (architect only) - **Parameters:** `newArchitect` - New architect address - **Returns:** None - **Usage:** ```javascript await lightFiber.transferArchitect(newArchitect); ``` #### Profitability Applications 1. **Ephemeral Wallets:** Generates ephemeral wallet addresses from hash blocks synchronized across chains. 2. **Permanent Fiber:** Used wallets become permanent fiber channels for ongoing use. 3. **Watermark Signature:** Byte 11 fixed to 0x36 (36N9 signature) for identification. 4. **Unicode Enhancement:** XOR fold of UTF-8, UTF-16LE, UTF-16BE, UTF-32 for key robustness. 5. **Golden Ratio Scaling:** Layers scale by golden ratio φ = 1.618... with Fibonacci spiral expansion. --- ### SimpleFeeCollector (Ultra-Low Fee) **Purpose:** SimpleFeeCollector — ATTRACT BUSINESS with 0.1% fee (vs competitors 0.5-1%). No dependencies - minimal gas - fast deployment. **Deployed On:** Polygon #### Functions ##### `transferWithFee(address to)` - Transfer with Fee - **Access:** External Payable - **Parameters:** `to` - Recipient address - **Returns:** None - **Usage:** ```javascript await simpleFeeCollector.transferWithFee(recipientAddress, {value: ethers.parseEther("1.0")}); ``` - **Description:** Transfer ETH with 0.1% fee (10 basis points). Attracts business with ultra-low fees. - **Event:** `FeeCollected`, `Transfer` ##### `withdrawFees()` - Withdraw Fees - **Access:** External (owner only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await simpleFeeCollector.withdrawFees(); ``` - **Description:** Withdraws all collected fees to owner. ##### `getStats()` - Get Stats - **Access:** External View - **Parameters:** None - **Returns:** Total fees collected, total volume - **Usage:** ```javascript const [fees, volume] = await simpleFeeCollector.getStats(); ``` #### Profitability Applications 1. **Ultra-Low Fees:** 0.1% fee attracts business vs competitors at 0.5-1%. 2. **Minimal Gas:** No dependencies for fast deployment and low gas usage. 3. **ETH Transfers:** Simple ETH transfer with automatic fee collection. 4. **Owner Withdrawal:** Owner can withdraw collected fees anytime. 5. **Volume Tracking:** Tracks total fees and total volume for analytics. --- ### MagnetFeeCollector (Multi-Token) **Purpose:** MagnetFeeCollector — ATTRACT BUSINESS with ultra-low fees (0.1%). Unavoidable fee collection on all transfers. Designed to outcompete high-fee alternatives. Supports ERC20 tokens and ETH with automatic user tracking. **Deployed On:** Polygon #### Functions ##### `addSupportedToken(address token)` - Add Supported Token - **Access:** External (owner only) - **Parameters:** `token` - Token address - **Returns:** None - **Usage:** ```javascript await magnetFeeCollector.addSupportedToken(tokenAddress); ``` - **Description:** Adds a supported token for fee collection. - **Event:** `TokenAdded` ##### `transferWithFee(address token, address to, uint256 amount)` - Transfer Token with Fee - **Access:** External - **Parameters:** - `token`: Token address - `to`: Recipient address - `amount`: Amount to transfer - **Returns:** None - **Usage:** ```javascript await magnetFeeCollector.transferWithFee(usdcAddress, recipient, ethers.parseUnits("1000", 6)); ``` - **Description:** Transfer ERC20 tokens with unavoidable 0.1% fee. Tracks user volume. - **Event:** `TransferExecuted`, `FeeCollected` ##### `transferETHWithFee(address to)` - Transfer ETH with Fee - **Access:** External Payable - **Parameters:** `to` - Recipient address - **Returns:** None - **Usage:** ```javascript await magnetFeeCollector.transferETHWithFee(recipientAddress, {value: ethers.parseEther("1.0")}); ``` - **Description:** Transfer ETH with unavoidable 0.1% fee. Tracks user volume. - **Event:** `TransferExecuted`, `FeeCollected` ##### `withdrawFees(address token)` - Withdraw Fees - **Access:** External (owner only) - **Parameters:** `token` - Token address (address(0) for ETH) - **Returns:** None - **Usage:** ```javascript await magnetFeeCollector.withdrawFees(usdcAddress); // For tokens await magnetFeeCollector.withdrawFees(address(0)); // For ETH ``` - **Description:** Withdraws collected fees for specific token or ETH to architect. ##### `getStats()` - Get Stats - **Access:** External View - **Parameters:** None - **Returns:** Total fees collected, total volume, user count - **Usage:** ```javascript const [fees, volume, userCount] = await magnetFeeCollector.getStats(); ``` ##### `getUserStats(address user)` - Get User Stats - **Access:** External View - **Parameters:** `user` - User address - **Returns:** User volume - **Usage:** ```javascript const volume = await magnetFeeCollector.getUserStats(userAddress); ``` #### Profitability Applications 1. **Ultra-Low Fees:** 0.1% fee on all transfers attracts business. 2. **Multi-Token Support:** Supports ERC20 tokens and ETH. 3. **User Tracking:** Tracks user volume and count for analytics. 4. **Unavoidable Fees:** Fee collection is unavoidable on all transfers. 5. **Pre-Configured Tokens:** USDC, USDT, and WMATIC pre-configured on Polygon. --- ### VinoReserveCurrency (Global Reserve) **Purpose:** VinoReserveCurrency — VINO as Self-Referential Global Reserve Currency. VINO Design Philosophy: VINO is the frame of reference for all other assets, determines its own value through system operations, not pegged to any external currency, self-referential (value derived from VINO itself), standard-bearer (all assets priced in VINO), global reserve (ultimate settlement currency). Mechanism: Elastic supply based on demand, value determined by floating voucher redemption rates, system operations generate VINO through seigniorage, VINO burns during contraction, oracle-free and autonomous. **Deployed On:** Polygon #### Functions ##### `mintVino(uint256 amount, string memory reason)` - Mint VINO - **Access:** External (owner only) - **Parameters:** - `amount`: Amount to mint - `reason`: Reason for minting - **Returns:** None - **Usage:** ```javascript await vinoReserveCurrency.mintVino(ethers.parseEther("1000"), "System expansion"); ``` - **Description:** Mints VINO for system operations (seigniorage). - **Event:** `VinoMinted` ##### `burnVino(uint256 amount, string memory reason)` - Burn VINO - **Access:** External (owner only) - **Parameters:** - `amount`: Amount to burn - `reason`: Reason for burning - **Returns:** None - **Usage:** ```javascript await vinoReserveCurrency.burnVino(ethers.parseEther("500"), "System contraction"); ``` - **Description:** Burns VINO for system contraction. - **Event:** `VinoBurned` ##### `updateValueLocked(uint256 newValue)` - Update Value Locked - **Access:** External (owner only) - **Parameters:** `newValue` - New total value locked - **Returns:** None - **Usage:** ```javascript await vinoReserveCurrency.updateValueLocked(ethers.parseEther("10000000")); ``` - **Description:** Updates total value locked in system. Recalculates exchange rate. - **Event:** `ValueLockedUpdated`, `ExchangeRateUpdated` ##### `executeRebase()` - Execute Rebase - **Access:** External (owner only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await vinoReserveCurrency.executeRebase(); ``` - **Description:** Executes rebase to adjust supply to target growth rate (2.5% annual). Mints or burns to reach target. - **Event:** `RebaseExecuted`, `VinoMinted`, `VinoBurned` ##### `recordVoucherRedemption(uint256 amount)` - Record Voucher Redemption - **Access:** External (owner only) - **Parameters:** `amount` - Amount redeemed - **Returns:** None - **Usage:** ```javascript await vinoReserveCurrency.recordVoucherRedemption(ethers.parseEther("10000")); ``` - **Description:** Records voucher redemption in VINO. Updates exchange rate. - **Event:** `ExchangeRateUpdated` ##### `recordSystemTransaction(uint256 amount)` - Record System Transaction - **Access:** External (owner only) - **Parameters:** `amount` - Transaction amount - **Returns:** None - **Usage:** ```javascript await vinoReserveCurrency.recordSystemTransaction(ethers.parseEther("50000")); ``` - **Description:** Records system transaction in VINO. Calculates VINO velocity. ##### `integrateOmertaClub(address _system)` - Integrate Omerta Club - **Access:** External (owner only) - **Parameters:** `_system` - Omerta Club Player Card System address - **Returns:** None - **Usage:** ```javascript await vinoReserveCurrency.integrateOmertaClub(omertaAddress); ``` - **Description:** Integrates Omerta Club Player Card System. - **Event:** `SystemIntegrated` ##### `integrateMediciRouter(address _router)` - Integrate Medici Router - **Access:** External (owner only) - **Parameters:** `_router` - Medici Fee Distribution Router address - **Returns:** None - **Usage:** ```javascript await vinoReserveCurrency.integrateMediciRouter(routerAddress); ``` - **Description:** Integrates Medici Fee Distribution Router. - **Event:** `SystemIntegrated` ##### `getVinoStats()` - Get VINO Stats - **Access:** External View - **Parameters:** None - **Returns:** Supply, value locked, exchange rate, redemption volume, transaction volume, velocity - **Usage:** ```javascript const stats = await vinoReserveCurrency.getVinoStats(); ``` ##### `convertToVino(uint256 assetValue)` - Convert to VINO - **Access:** External View - **Parameters:** `assetValue` - Value in external asset units - **Returns:** VINO equivalent - **Usage:** ```javascript const vinoAmount = await vinoReserveCurrency.convertToVino(assetValue); ``` ##### `convertFromVino(uint256 vinoAmount)` - Convert from VINO - **Access:** External View - **Parameters:** `vinoAmount` - Amount in VINO - **Returns:** External asset equivalent - **Usage:** ```javascript const assetValue = await vinoReserveCurrency.convertFromVino(vinoAmount); ``` #### Profitability Applications 1. **Self-Referential Currency:** VINO determines its own value through system operations. 2. **Elastic Supply:** Supply adjusts based on system demand. 3. **Oracle-Free:** No external price feeds needed - autonomous self-regulation. 4. **Seigniorage:** System operations generate VINO through minting. 5. **Global Reserve:** Ultimate settlement currency for all system assets. --- ### CrossChainVault (Decoy Honeypot) **Purpose:** CrossChainVault — Looks like a real cross-chain vault. Honeypot — logs all interactions. Used as a decoy to attract and monitor malicious actors probing for vulnerabilities. **Deployed On:** Polygon, Ethereum, Arbitrum, Optimism, Base, BSC, Avalanche (7 chains) #### Functions ##### `rotateSecret(bytes32 channel)` - Rotate Secret - **Access:** External - **Parameters:** `channel` - Channel identifier - **Returns:** None - **Usage:** ```javascript await crossChainVault.rotateSecret(channelId); ``` - **Description:** Rotates secret for a channel. Logs probe activity. - **Event:** `Probe`, `SecretRotated` ##### `syncVault(bytes32 newRoot)` - Sync Vault - **Access:** External - **Parameters:** `newRoot` - New vault root - **Returns:** None - **Usage:** ```javascript await crossChainVault.syncVault(newRoot); ``` - **Description:** Syncs vault with new root. Logs probe activity. - **Event:** `Probe`, `VaultSync` ##### `verifySecret(bytes32 channel, bytes32 proof)` - Verify Secret - **Access:** External View - **Parameters:** - `channel` - Channel identifier - `proof` - Proof to verify - **Returns:** True if proof matches secret - **Usage:** ```javascript const valid = await crossChainVault.verifySecret(channelId, proof); ``` ##### `getVaultStatus()` - Get Vault Status - **Access:** External View - **Parameters:** None - **Returns:** Vault root, total locked, chain ID - **Usage:** ```javascript const [root, locked, chainId] = await crossChainVault.getVaultStatus(); ``` #### Profitability Applications 1. **Honeypot Decoy:** Attracts malicious actors probing for vulnerabilities. 2. **Probe Logging:** Logs all interaction attempts with function selectors and timestamps. 3. **Cross-Chain Simulation:** Mimics real cross-chain vault behavior to deceive attackers. 4. **Secret Rotation:** Simulates secret rotation like real vaults. 5. **Monitoring:** Provides intelligence on attack patterns and probing behavior. --- ### SovereignTreasuryVault (Time-Locked Treasury) **Purpose:** SovereignTreasuryVault — Time-locked multi-sig treasury vault for Medici Skim protection. Architecture: Time-Lock (48-hour delay on withdrawals), Multi-Sig (multiple signers required), Panic Burn (emergency vaporization of funds), Approved Addresses (whitelist of pre-approved destinations), Architect Control (architect K retains ultimate control). Mathematical Reality: Withdrawal Delay 48 hours, Multi-Sig Threshold 2/3 or 3/5, Panic Burn 100% vaporization, Crown Skim Routing 3.25% fee routed to vault. **Deployed On:** Polygon #### Functions ##### `deposit(address _token, uint256 _amount)` - Deposit Token - **Access:** External - **Parameters:** - `_token`: Token to deposit - `_amount`: Amount to deposit - **Returns:** None - **Usage:** ```javascript await sovereignTreasuryVault.deposit(usdcAddress, ethers.parseUnits("10000", 6)); ``` - **Description:** Deposits token into treasury vault. - **Event:** `Deposit` ##### `requestWithdrawal(address _token, uint256 _amount, address _to)` - Request Withdrawal - **Access:** External (owner only) - **Parameters:** - `_token`: Token to withdraw - `_amount`: Amount to withdraw - `_to`: Destination address (must be approved) - **Returns:** None - **Usage:** ```javascript await sovereignTreasuryVault.requestWithdrawal(usdcAddress, ethers.parseUnits("5000", 6), approvedAddress); ``` - **Description:** Requests withdrawal with 48-hour delay. Destination must be approved address. - **Event:** `WithdrawalRequested` ##### `executeWithdrawal(bytes32 _requestId)` - Execute Withdrawal - **Access:** External (owner only) - **Parameters:** `_requestId` - Withdrawal request ID - **Returns:** None - **Usage:** ```javascript await sovereignTreasuryVault.executeWithdrawal(requestId); ``` - **Description:** Executes withdrawal after 48-hour delay. - **Event:** `WithdrawalExecuted` ##### `cancelWithdrawal(bytes32 _requestId)` - Cancel Withdrawal - **Access:** External (owner only) - **Parameters:** `_requestId` - Withdrawal request ID - **Returns:** None - **Usage:** ```javascript await sovereignTreasuryVault.cancelWithdrawal(requestId); ``` - **Description:** Cancels pending withdrawal request. - **Event:** `WithdrawalCancelled` ##### `activatePanicBurn()` - Activate Panic Burn - **Access:** External (owner only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await sovereignTreasuryVault.activatePanicBurn(); ``` - **Description:** Activates panic burn mode for emergency fund vaporization. - **Event:** `PanicBurnActivated` ##### `executePanicBurn(bool _distributeToFortuna)` - Execute Panic Burn - **Access:** External (owner only) - **Parameters:** `_distributeToFortuna` - If true, distribute to FortunaPool; if false, burn - **Returns:** None - **Usage:** ```javascript await sovereignTreasuryVault.executePanicBurn(true); // Distribute to FortunaPool await sovereignTreasuryVault.executePanicBurn(false); // Burn to dead address ``` - **Description:** Executes panic burn after 1-hour delay. Distributes to FortunaPool or burns to dead address. ##### `addApprovedAddress(address _address)` - Add Approved Address - **Access:** External (owner only) - **Parameters:** `_address` - Address to approve - **Returns:** None - **Usage:** ```javascript await sovereignTreasuryVault.addApprovedAddress(address); ``` - **Description:** Adds address to approved withdrawal destinations whitelist. - **Event:** `ApprovedAddressAdded` ##### `removeApprovedAddress(address _address)` - Remove Approved Address - **Access:** External (owner only) - **Parameters:** `_address` - Address to remove - **Returns:** None - **Usage:** ```javascript await sovereignTreasuryVault.removeApprovedAddress(address); ``` - **Description:** Removes address from approved withdrawal destinations whitelist. - **Event:** `ApprovedAddressRemoved` ##### `setFortunaPool(address _fortunaPool)` - Set FortunaPool - **Access:** External (owner only) - **Parameters:** `_fortunaPool` - FortunaPool address - **Returns:** None - **Usage:** ```javascript await sovereignTreasuryVault.setFortunaPool(fortunaAddress); ``` - **Description:** Sets FortunaPool address for panic burn distribution. ##### `getWithdrawalRequest(bytes32 _requestId)` - Get Withdrawal Request - **Access:** External View - **Parameters:** `_requestId` - Withdrawal request ID - **Returns:** Token, amount, to, request time, execute time, executed, cancelled - **Usage:** ```javascript const [token, amount, to, requestTime, executeTime, executed, cancelled] = await sovereignTreasuryVault.getWithdrawalRequest(requestId); ``` ##### `getAllWithdrawalRequestIds()` - Get All Withdrawal Request IDs - **Access:** External View - **Parameters:** None - **Returns:** Array of withdrawal request IDs - **Usage:** ```javascript const ids = await sovereignTreasuryVault.getAllWithdrawalRequestIds(); ``` ##### `getAllApprovedAddresses()` - Get All Approved Addresses - **Access:** External View - **Parameters:** None - **Returns:** Array of approved addresses - **Usage:** ```javascript const addresses = await sovereignTreasuryVault.getAllApprovedAddresses(); ``` ##### `getTokenBalance(address _token)` - Get Token Balance - **Access:** External View - **Parameters:** `_token` - Token address - **Returns:** Token balance - **Usage:** ```javascript const balance = await sovereignTreasuryVault.getTokenBalance(usdcAddress); ``` #### Profitability Applications 1. **Time-Locked Security:** 48-hour withdrawal delay prevents rushed fund extraction. 2. **Approved Whitelist:** Only pre-approved addresses can receive withdrawals. 3. **Panic Burn:** Emergency vaporization of funds to FortunaPool or burn address. 4. **Multi-Sig Architecture:** Multiple signers required for operations. 5. **Crown Skim Protection:** 3.25% fee routed to vault instead of EOA for security. --- ### WhaleInvestmentVault (High-Capacity Vault) **Purpose:** WhaleInvestmentVault — High-capacity investment vault for large-scale capital deployment. Optimized for whale investors with automated routing and professional features. Minimum investment: 100,000 USDC. Target bootstrap: 10,000,000 USDC. Whale yield share: 80% (premium for large investors). Architect yield share: 20%. **Deployed On:** Polygon #### Functions ##### `whaleInvest(uint256 capital)` - Whale Investment - **Access:** External - **Parameters:** `capital` - Amount of USDC to invest (minimum 100,000 USDC) - **Returns:** None - **Usage:** ```javascript await whaleInvestmentVault.whaleInvest(ethers.parseUnits("100000", 6)); ``` - **Description:** Whale-level investment with minimum 100,000 USDC. 1 share = 1 USDC. Triggers bootstrap when target reached. - **Event:** `WhaleInvestment`, `BootstrapTriggered` ##### `batchWhaleInvest(address[] calldata whales, uint256[] calldata capitals)` - Batch Whale Investment - **Access:** External - **Parameters:** - `whales`: Array of whale addresses - `capitals`: Array of capital amounts (must match whales length) - **Returns:** None - **Usage:** ```javascript await whaleInvestmentVault.batchWhaleInvest([whale1, whale2], [ethers.parseUnits("100000", 6), ethers.parseUnits("200000", 6)]); ``` - **Description:** Batch whale investment for multiple whales. Triggers bootstrap when target reached. - **Event:** `WhaleInvestment`, `BootstrapTriggered` ##### `distributeYield(uint256 totalYield)` - Distribute Yield - **Access:** External (plunger mechanism or architect only) - **Parameters:** `totalYield` - Total yield received from ecosystem - **Returns:** None - **Usage:** ```javascript await whaleInvestmentVault.distributeYield(ethers.parseUnits("50000", 6)); ``` - **Description:** Distributes yield to whales (80%) and architect (20%) pro-rata based on shares. - **Event:** `WhaleYieldDistributed` ##### `emergencyPauseVault()` - Emergency Pause - **Access:** External (architect only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await whaleInvestmentVault.emergencyPauseVault(); ``` - **Description:** Toggles emergency pause by architect. - **Event:** `EmergencyPause` ##### `whaleWithdraw()` - Whale Withdrawal - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await whaleInvestmentVault.whaleWithdraw(); ``` - **Description:** Whale withdrawal (before bootstrap only). Returns capital to whale. - **Event:** `WhaleWithdrawal` ##### `getWhaleCount()` - Get Whale Count - **Access:** External View - **Parameters:** None - **Returns:** Number of whale investors - **Usage:** ```javascript const count = await whaleInvestmentVault.getWhaleCount(); ``` ##### `getWhaleInfo(address whale)` - Get Whale Info - **Access:** External View - **Parameters:** `whale` - Whale address - **Returns:** Capital, shares, yield received, share percentage, is whale - **Usage:** ```javascript const [capital, shares, yieldReceived, sharePercentage, isWhale] = await whaleInvestmentVault.getWhaleInfo(whaleAddress); ``` ##### `getVaultStatus()` - Get Vault Status - **Access:** External View - **Parameters:** None - **Returns:** Total whale capital, total whale shares, target bootstrap, progress, bootstrapped, emergency pause - **Usage:** ```javascript const [totalCapital, totalShares, target, progress, bootstrapped, paused] = await whaleInvestmentVault.getVaultStatus(); ``` ##### `getWhaleList()` - Get Whale List - **Access:** External View - **Parameters:** None - **Returns:** Array of whale addresses - **Usage:** ```javascript const whales = await whaleInvestmentVault.getWhaleList(); ``` #### Profitability Applications 1. **Whale Minimum:** 100,000 USDC minimum investment for high-capacity investors. 2. **Premium Yield:** 80% yield share to whales (premium for large investors). 3. **Bootstrap Trigger:** Automatically triggers PlungerMechanism Supernova when 10M USDC target reached. 4. **Pro-Rata Distribution:** Yield distributed pro-rata based on shares. 5. **Emergency Controls:** Architect can pause vault and control emergency situations. --- ### PlungerMechanism (Liquidity Lens) **Purpose:** PlungerMechanism — Lens contract for liquidity state projection into transient memory. Projects liquidity state and swap routing fragments into Fusion Reactor. Part of the Holographic Fusion Architecture. **Deployed On:** Polygon #### Functions ##### `projectFragment(bytes memory seed)` - Project Fragment - **Access:** External (fusion reactor only) - **Parameters:** `seed` - Seed for fragment generation - **Returns:** None - **Usage:** ```javascript await plungerMechanism.projectFragment(seed); ``` - **Description:** Called by Light Source to project liquidity state fragment into transient memory. - **Event:** `FragmentProjected` ##### `updateLiquidityState(bytes32 pairId, address token0, address token1, uint256 reserve0, uint256 reserve1)` - Update Liquidity State - **Access:** External (architect only) - **Parameters:** - `pairId`: Pair ID - `token0`: Token0 address - `token1`: Token1 address - `reserve0`: Reserve0 - `reserve1`: Reserve1 - **Returns:** None - **Usage:** ```javascript await plungerMechanism.updateLiquidityState(pairId, token0, token1, reserve0, reserve1); ``` - **Description:** Updates liquidity state for a trading pair. - **Event:** `LiquidityStateUpdated` ##### `getLiquidityState(bytes32 pairId)` - Get Liquidity State - **Access:** External View - **Parameters:** `pairId` - Pair ID - **Returns:** Token0, token1, reserve0, reserve1, timestamp - **Usage:** ```javascript const [token0, token1, reserve0, reserve1, timestamp] = await plungerMechanism.getLiquidityState(pairId); ``` ##### `updateFusionReactor(address newReactor)` - Update Fusion Reactor - **Access:** External (architect only) - **Parameters:** `newReactor` - New fusion reactor address - **Returns:** None - **Usage:** ```javascript await plungerMechanism.updateFusionReactor(newReactor); ``` ##### `transferArchitect(address newArchitect)` - Transfer Architect - **Access:** External (architect only) - **Parameters:** `newArchitect` - New architect address - **Returns:** None - **Usage:** ```javascript await plungerMechanism.transferArchitect(newArchitect); ``` #### Profitability Applications 1. **Transient Memory:** Projects liquidity state into transient memory for gas efficiency. 2. **Fragment Projection:** Projects fragments into Fusion Reactor for holographic AMM. 3. **Liquidity Tracking:** Tracks liquidity state for trading pairs. 4. **Lens Architecture:** Acts as a lens in the holographic fusion architecture. 5. **State Synchronization:** Synchronizes liquidity state across the system. --- ### HolographicHub (Multi-Protocol Compression) **Purpose:** HolographicHub — Multi-protocol XOR-based holographic smart contract compression. Supports EVM, TVM (Tron), WASM (Xahau/NEAR), Move (SUI), CosmWasm (Neutron). Multiple contracts compressed into single bytecode via XOR. Uses 168-bit genomic seeds for deterministic expansion. Stateless contracts exist only in memory during execution. **Deployed On:** Polygon #### Functions ##### `expandSeed(bytes32 seed, uint256 targetSize)` - Expand Seed - **Access:** External View - **Parameters:** - `seed`: 168-bit genomic seed - `targetSize`: Target size in bytes - **Returns:** Expanded bytes - **Usage:** ```javascript const expanded = await holographicHub.expandSeed(seed, 1024); ``` - **Description:** Expands 168-bit seed into full-size XOR key using LFSR. ##### `xorBytes(bytes memory a, bytes memory b)` - XOR Bytes - **Access:** External Pure - **Parameters:** - `a`: First bytes - `b`: Second bytes - **Returns:** XOR result - **Usage:** ```javascript const result = await holographicHub.xorBytes(bytesA, bytesB); ``` - **Description:** Performs XOR operation on two byte arrays. ##### `registerHologram(bytes32 id, Protocol protocol, bytes memory bytecode, bytes32 hash)` - Register Hologram - **Access:** External (architect only) - **Parameters:** - `id`: 168-bit genomic seed - `protocol`: Protocol type (EVM, TVM, WASM, MOVE, COSMWASM) - `bytecode`: Contract bytecode - `hash`: Hash of original bytecode - **Returns:** None - **Usage:** ```javascript await holographicHub.registerHologram(seed, Protocol.EVM, bytecode, bytecodeHash); ``` - **Description:** Registers hologram in protocol-specific hub. XORs bytecode into protocol hub. Handles outliers separately. - **Event:** `HologramRegistered`, `OutlierRegistered`, `ProtocolHubUpdated` ##### `revealContract(bytes32 id)` - Reveal Contract - **Access:** External View - **Parameters:** `id` - Hologram ID (genomic seed) - **Returns:** Revealed bytecode - **Usage:** ```javascript const bytecode = await holographicHub.revealContract(hologramId); ``` - **Description:** Reveals contract bytecode from protocol hub using genomic seed. ##### `revealBatch(bytes32[] calldata ids)` - Reveal Batch - **Access:** External View - **Parameters:** `ids` - Array of hologram IDs - **Returns:** Array of revealed bytecodes - **Usage:** ```javascript const bytecodes = await holographicHub.revealBatch([id1, id2, id3]); ``` - **Description:** Batch reveals multiple contracts for routing. ##### `verifyHologram(bytes32 id, bytes memory bytecode)` - Verify Hologram - **Access:** External View - **Parameters:** - `id`: Hologram ID - `bytecode`: Bytecode to verify - **Returns:** True if verified - **Usage:** ```javascript const valid = await holographicHub.verifyHologram(id, bytecode); ``` - **Description:** Verifies that revealed bytecode matches registered hash. ##### `processBytecodeChunks(bytes memory bytecode)` - Process Bytecode Chunks - **Access:** External Pure - **Parameters:** `bytecode` - Bytecode to process - **Returns:** Chunks, outliers - **Usage:** ```javascript const [chunks, outliers] = await holographicHub.processBytecodeChunks(bytecode); ``` - **Description:** Processes bytecode in 168-byte chunks with outlier handling. ##### `getProtocolHubSize(Protocol protocol)` - Get Protocol Hub Size - **Access:** External View - **Parameters:** `protocol` - Protocol type - **Returns:** Protocol hub size - **Usage:** ```javascript const size = await holographicHub.getProtocolHubSize(Protocol.EVM); ``` ##### `getHologramCount()` - Get Hologram Count - **Access:** External View - **Parameters:** None - **Returns:** Number of holograms - **Usage:** ```javascript const count = await holographicHub.getHologramCount(); ``` ##### `getProtocolHologramCount(Protocol protocol)` - Get Protocol Hologram Count - **Access:** External View - **Parameters:** `protocol` - Protocol type - **Returns:** Number of holograms for protocol - **Usage:** ```javascript const count = await holographicHub.getProtocolHologramCount(Protocol.WASM); ``` ##### `getOutlierCount()` - Get Outlier Count - **Access:** External View - **Parameters:** None - **Returns:** Number of outliers - **Usage:** ```javascript const count = await holographicHub.getOutlierCount(); ``` ##### `getHologram(bytes32 id)` - Get Hologram - **Access:** External View - **Parameters:** `id` - Hologram ID - **Returns:** Hologram struct - **Usage:** ```javascript const hologram = await holographicHub.getHologram(id); ``` ##### `getProtocolHologramIds(Protocol protocol)` - Get Protocol Hologram IDs - **Access:** External View - **Parameters:** `protocol` - Protocol type - **Returns:** Array of hologram IDs for protocol - **Usage:** ```javascript const ids = await holographicHub.getProtocolHologramIds(Protocol.EVM); ``` ##### `transferArchitect(address newArchitect)` - Transfer Architect - **Access:** External (architect only) - **Parameters:** `newArchitect` - New architect address - **Returns:** None - **Usage:** ```javascript await holographicHub.transferArchitect(newArchitect); ``` #### Profitability Applications 1. **Multi-Protocol Support:** Supports EVM, TVM, WASM, Move, CosmWasm protocols. 2. **XOR Compression:** Multiple contracts compressed into single bytecode via XOR. 3. **Genomic Seeds:** 168-bit seeds for deterministic expansion. 4. **Stateless Execution:** Contracts exist only in memory during execution. 5. **Outlier Handling:** Handles large contracts separately as outliers. --- ### HolographicRouter (Execution Layer) **Purpose:** HolographicRouter — Translation layer for holographic contract execution. Reveals contracts from HolographicHub using 168-bit genomic seeds. Executes contracts via delegatecall in transient memory. Contracts vanish after execution (stateless holograms). **Deployed On:** Polygon #### Functions ##### `revealAndDeploy(bytes32 hologramId)` - Reveal and Deploy - **Access:** External - **Parameters:** `hologramId` - Hologram ID (genomic seed) - **Returns:** Implementation address - **Usage:** ```javascript const implementation = await holographicRouter.revealAndDeploy(hologramId); ``` - **Description:** Reveals hologram bytecode and creates implementation contract via CREATE2. - **Event:** `ContractRevealed` ##### `routeAndExecute(bytes32 hologramId, bytes memory data)` - Route and Execute - **Access:** External Payable - **Parameters:** - `hologramId` - Hologram ID - `data` - Call data - **Returns:** Return data, success - **Usage:** ```javascript const [returnData, success] = await holographicRouter.routeAndExecute(hologramId, callData); ``` - **Description:** Routes to hologram, reveals if needed, executes via delegatecall. - **Event:** `ContractExecuted` ##### `registerRoute(bytes4 selector, bytes32 hologramId)` - Register Route - **Access:** External (architect only) - **Parameters:** - `selector`: Function selector - `hologramId` - Hologram ID - **Returns:** None - **Usage:** ```javascript await holographicRouter.registerRoute(selector, hologramId); ``` - **Description:** Registers function selector to hologram mapping for fallback routing. - **Event:** `RouteRegistered` ##### `getExecution(uint256 id)` - Get Execution - **Access:** External View - **Parameters:** `id` - Execution ID - **Returns:** Execution struct - **Usage:** ```javascript const execution = await holographicRouter.getExecution(executionId); ``` ##### `getImplementation(bytes32 hologramId)` - Get Implementation - **Access:** External View - **Parameters:** `hologramId` - Hologram ID - **Returns:** Implementation address - **Usage:** ```javascript const address = await holographicRouter.getImplementation(hologramId); ``` ##### `getHologramId(bytes4 selector)` - Get Hologram ID - **Access:** External View - **Parameters:** `selector` - Function selector - **Returns:** Hologram ID - **Usage:** ```javascript const hologramId = await holographicRouter.getHologramId(selector); ``` ##### `transferArchitect(address newArchitect)` - Transfer Architect - **Access:** External (architect only) - **Parameters:** `newArchitect` - New architect address - **Returns:** None - **Usage:** ```javascript await holographicRouter.transferArchitect(newArchitect); ``` ##### `updateHub(address newHub)` - Update Hub - **Access:** External (architect only) - **Parameters:** `newHub` - New HolographicHub address - **Returns:** None - **Usage:** ```javascript await holographicRouter.updateHub(newHubAddress); ``` #### Profitability Applications 1. **Just-In-Time Deployment:** Reveals and deploys contracts on-demand. 2. **Delegatecall Execution:** Executes contracts via delegatecall for stateless operation. 3. **Fallback Routing:** Routes function selectors to holograms automatically. 4. **Execution Tracking:** Tracks all executions with gas usage and results. 5. **CREATE2 Deployment:** Deterministic deployment for predictable addresses. --- ### HolographicAMM (Golden Spiral Exchange) **Purpose:** HolographicAMM — The Golden Spiral Exchange - 144-Phase Fibonacci Swaps. A Holographic Market Maker that compresses 144 transactions into a single state write, routing liquidity along the Fibonacci sequence with Golden Ratio weighting. Uses holographic capital to tax virtualized volume. Architecture: Decouples execution from settlement, routes along Fibonacci (1,1,2,3,5,8,13,21...144), supports triplets and quads, Swap Derivatives for betting on outcomes, 3.25% Medici Skim at every phase, Unicode steganography provides hidden infrastructure layers. **Deployed On:** Polygon #### Functions ##### `receiveCapital(uint256 amount)` - Receive Capital - **Access:** External - **Parameters:** `amount` - Amount of USDC received - **Returns:** None - **Usage:** ```javascript await holographicAMM.receiveCapital(ethers.parseUnits("1000000", 6)); ``` - **Description:** Receives capital from PlungerMechanism. - **Event:** `CapitalReceived` ##### `authorizeCapitalSource(address source)` - Authorize Capital Source - **Access:** External (architect only) - **Parameters:** `source` - Capital source address - **Returns:** None - **Usage:** ```javascript await holographicAMM.authorizeCapitalSource(plungerAddress); ``` ##### `generateYield(uint256 amount)` - Generate Yield - **Access:** External (architect only) - **Parameters:** `amount` - Amount to generate yield from - **Returns:** Yield amount - **Usage:** ```javascript const yield = await holographicAMM.generateYield(ethers.parseUnits("100000", 6)); ``` - **Description:** Simulates yield generation through market making (2% conservative estimate). - **Event:** `YieldGenerated` ##### `withdrawYield(uint256 amount)` - Withdraw Yield - **Access:** External (architect only) - **Parameters:** `amount` - Amount to withdraw - **Returns:** None - **Usage:** ```javascript await holographicAMM.withdrawYield(ethers.parseUnits("5000", 6)); ``` ##### `executeFibonacciSwap(address inputAsset, address outputAsset, uint256 inputAmount, uint256 phases)` - Execute Fibonacci Swap - **Access:** External Payable - **Parameters:** - `inputAsset`: Asset to swap from - `outputAsset`: Asset to swap to - `inputAmount`: Amount to swap - `phases`: Number of Fibonacci phases (1-144) - **Returns:** Cycle ID - **Usage:** ```javascript const cycleId = await holographicAMM.executeFibonacciSwap(token0, token1, ethers.parseEther("1"), 12); ``` - **Description:** Executes 144-phase Fibonacci swap with Golden Ratio weighting. 3.25% Medici Skim at each phase. - **Event:** `PhaseSwap`, `MediciSkim` ##### `executeTripletSwap(address[] calldata assets, uint256[] calldata amounts)` - Execute Triplet Swap - **Access:** External Payable - **Parameters:** - `assets`: Array of 3 output assets - `amounts`: Array of 3 output amounts - **Returns:** Cycle ID - **Usage:** ```javascript const cycleId = await holographicAMM.executeTripletSwap([asset1, asset2, asset3], [amt1, amt2, amt3], {value: ethers.parseEther("1")}); ``` - **Description:** Executes triplet swap (A -> B, C, D simultaneously) with Golden Ratio distribution. - **Event:** `TripletSwap`, `MediciSkim` ##### `placeSwapDerivative(uint256 cycleId, uint256 phase, bytes32 outcomeHash)` - Place Swap Derivative - **Access:** External Payable - **Parameters:** - `cycleId`: Swap cycle to bet on - `phase`: Fibonacci phase to bet on - `outcomeHash`: Predicted outcome hash - **Returns:** Derivative ID - **Usage:** ```javascript const derivativeId = await holographicAMM.placeSwapDerivative(cycleId, 5, outcomeHash, {value: ethers.parseEther("0.1")}); ``` - **Description:** Places swap derivative bet on cycle outcome. 3.25% Medici Skim on bet. - **Event:** `SwapDerivativePlaced`, `MediciSkim` ##### `settleDerivatives(uint256 cycleId)` - Settle Derivatives - **Access:** External (architect only) - **Parameters:** `cycleId` - Cycle ID to settle - **Returns:** None - **Usage:** ```javascript await holographicAMM.settleDerivatives(cycleId); ``` - **Description:** Settles swap derivatives after cycle completes. Winners get 2x payout. ##### `getCycleSummary(uint256 cycleId)` - Get Cycle Summary - **Access:** External View - **Parameters:** `cycleId` - Cycle ID - **Returns:** Total input, total output, total skim, phi multiplier, completed - **Usage:** ```javascript const [input, output, skim, phi, completed] = await holographicAMM.getCycleSummary(cycleId); ``` ##### `getHolographicBalance(address asset)` - Get Holographic Balance - **Access:** External View - **Parameters:** `asset` - Asset address - **Returns:** Holographic balance - **Usage:** ```javascript const balance = await holographicAMM.getHolographicBalance(assetAddress); ``` ##### `getVirtualVolume()` - Get Virtual Volume - **Access:** External View - **Parameters:** None - **Returns:** Virtual volume for Medici Skim calculation - **Usage:** ```javascript const volume = await holographicAMM.getVirtualVolume(); ``` ##### `executeFibonacciSwapOnLayer(address inputAsset, address outputAsset, uint256 inputAmount, uint256 phases, UnicodeRoutingKernel.UnicodeLayer layer)` - Execute on Layer - **Access:** External Payable - **Parameters:** - `inputAsset`: Asset to swap from - `outputAsset`: Asset to swap to - `inputAmount`: Amount to swap - `phases`: Number of phases - `layer`: Unicode layer - **Returns:** Cycle ID, process ID - **Usage:** ```javascript const [cycleId, pid] = await holographicAMM.executeFibonacciSwapOnLayer(token0, token1, amount, 12, layer); ``` - **Description:** Executes Fibonacci swap on specific Unicode layer for nested computational layers. - **Event:** `LayerSwapExecution` #### Profitability Applications 1. **Fibonacci Routing:** Routes liquidity along Fibonacci sequence (1,1,2,3,5,8,13,21...144). 2. **Golden Ratio Weighting:** Uses Golden Ratio (1.618) for swap weighting and distribution. 3. **Medici Skim:** 3.25% fee at every phase generates revenue. 4. **Holographic Execution:** Compresses 144 transactions into single state write. 5. **Swap Derivatives:** Betting on swap outcomes for additional revenue streams. --- ### MeshRelay (Decoy Honeypot) **Purpose:** MeshRelay — Decoy mesh relay. Honeypot — all calls logged. Used as a decoy to attract and monitor malicious actors probing for mesh network vulnerabilities. **Deployed On:** Polygon, Ethereum, Arbitrum, Optimism, Base, BSC, Avalanche (7 chains) #### Functions ##### `registerNode(uint256 chainId, bytes32 pubkey)` - Register Node - **Access:** External - **Parameters:** - `chainId`: Chain ID - `pubkey`: Node public key - **Returns:** None - **Usage:** ```javascript await meshRelay.registerNode(1, pubkey); ``` - **Description:** Registers a node in the mesh network. Logs probe activity. - **Event:** `Probe`, `NodeRegistered` ##### `pulse(uint256 epoch)` - Pulse - **Access:** External - **Parameters:** `epoch` - Epoch number - **Returns:** None - **Usage:** ```javascript await meshRelay.pulse(epoch); ``` - **Description:** Sends a pulse through the mesh network. Logs probe activity. - **Event:** `Probe`, `RelayPulse` ##### `verifyRelay(bytes32 proof)` - Verify Relay - **Access:** External View - **Parameters:** `proof` - Relay proof - **Returns:** True if proof is valid - **Usage:** ```javascript const valid = await meshRelay.verifyRelay(proof); ``` ##### `getMeshRoot()` - Get Mesh Root - **Access:** External View - **Parameters:** None - **Returns:** Mesh root hash - **Usage:** ```javascript const root = await meshRelay.getMeshRoot(); ``` #### Profitability Applications 1. **Honeypot Decoy:** Attracts malicious actors probing for mesh network vulnerabilities. 2. **Probe Logging:** Logs all interaction attempts with function selectors and timestamps. 3. **Mesh Simulation:** Mimics real mesh relay behavior to deceive attackers. 4. **Node Registration:** Simulates node registration like real mesh networks. 5. **Pulse Mechanism:** Simulates pulse mechanism for mesh network communication. --- ### RecursiveFlashFolding (Kinetic Catalyst) **Purpose:** RecursiveFlashFolding — Recursive Flash Folding with Kinetic Catalyst. Architecture: Borrow, deposit as collateral, borrow against collateral, loop. Kinetic Catalyst: Route recursive volume through Count House to trigger 3.25% Medici Skim. Zero-Risk Profit: Catalyst yield (skim + arbitrage) must exceed provider flat fee. Quantum Liquidity: Provider capital is "copied" into system via volume triggers. Single Block Execution: All cycles execute and unwind within 12 seconds. Mathematical Reality: Provider Flat Fee 0.05-0.09% per flash loan, Standard Lending Interest negligible for 12 seconds, Medici Skim Catalyst 3.25% on recursive volume, Profit Condition (Medici Skim × Volume) > (Provider Fee × Cycles). **Deployed On:** Polygon #### Functions ##### `setUSDCToken(address _usdcToken)` - Set USDC Token - **Access:** External (architect only) - **Parameters:** `_usdcToken` - USDC token address - **Returns:** None - **Usage:** ```javascript await recursiveFlashFolding.setUSDCToken(usdcAddress); ``` ##### `receiveCapital(uint256 amount)` - Receive Capital - **Access:** External - **Parameters:** `amount` - Amount of USDC received - **Returns:** None - **Usage:** ```javascript await recursiveFlashFolding.receiveCapital(ethers.parseUnits("1000000", 6)); ``` - **Description:** Receives capital from PlungerMechanism. - **Event:** `CapitalReceived` ##### `authorizeCapitalSource(address source)` - Authorize Capital Source - **Access:** External (architect only) - **Parameters:** `source` - Capital source address - **Returns:** None - **Usage:** ```javascript await recursiveFlashFolding.authorizeCapitalSource(plungerAddress); ``` ##### `configureProvider(address provider, uint256 flatFeeBps, address pool)` - Configure Provider - **Access:** External (architect only) - **Parameters:** - `provider`: Flash loan provider address - `flatFeeBps`: Provider's flat fee in basis points - `pool`: Pool address for the asset - **Returns:** None - **Usage:** ```javascript await recursiveFlashFolding.configureProvider(aavePool, 5, usdcPool); ``` - **Description:** Configures flash loan provider with flat fee. - **Event:** `ProviderConfigured` ##### `executeFolding(address asset, uint256 initialBorrow, uint256 targetCycles, address countHouse, address provider)` - Execute Folding - **Access:** External - **Parameters:** - `asset`: Token to flash borrow - `initialBorrow`: Amount to initially borrow - `targetCycles`: Number of folding cycles (1-10) - `countHouse`: Count House to route volume through - `provider`: Flash loan provider to use - **Returns:** Session ID - **Usage:** ```javascript const sessionId = await recursiveFlashFolding.executeFolding(usdcAddress, ethers.parseUnits("100000", 6), 5, countHouse, aavePool); ``` - **Description:** Executes recursive flash folding cycles. Routes volume through Count House to trigger Medici Skim. - **Event:** `FoldingCycleExecuted`, `CatalystTriggered`, `FoldingComplete` ##### `simulateProfitability(uint256 initialBorrow, uint256 targetCycles, uint256 providerFeeBps)` - Simulate Profitability - **Access:** External Pure - **Parameters:** - `initialBorrow`: Initial borrow amount - `targetCycles`: Number of cycles - `providerFeeBps`: Provider flat fee - **Returns:** Total provider fees, total catalyst revenue, net profit - **Usage:** ```javascript const [fees, revenue, profit] = await recursiveFlashFolding.simulateProfitability(ethers.parseUnits("100000", 6), 5, 5); ``` - **Description:** Simulates folding profitability before execution. ##### `getSession(uint256 sessionId)` - Get Session - **Access:** External View - **Parameters:** `sessionId` - Session ID - **Returns:** Folding session details - **Usage:** ```javascript const session = await recursiveFlashFolding.getSession(sessionId); ``` ##### `getFoldingStats()` - Get Folding Stats - **Access:** External View - **Parameters:** None - **Returns:** Total volume routed, total catalyst generated, total provider fees paid, successful folds, failed folds - **Usage:** ```javascript const [volume, catalyst, fees, success, failed] = await recursiveFlashFolding.getFoldingStats(); ``` ##### `calculateMinProfitableCycles(uint256 initialBorrow, uint256 providerFeeBps)` - Calculate Minimum Profitable Cycles - **Access:** External Pure - **Parameters:** - `initialBorrow`: Initial borrow amount - `providerFeeBps`: Provider flat fee - **Returns:** Minimum cycles needed for profitability - **Usage:** ```javascript const minCycles = await recursiveFlashFolding.calculateMinProfitableCycles(ethers.parseUnits("100000", 6), 5); ``` ##### `flashLoan(address receiver, address asset, uint256 amount, bytes calldata userData)` - Flash Loan - **Access:** External - **Parameters:** - `receiver`: Address to receive flash loan - `asset`: Token to borrow - `amount`: Amount to borrow - `userData`: User data for callback - **Returns:** Success - **Usage:** ```javascript const success = await recursiveFlashFolding.flashLoan(receiver, usdcAddress, amount, userData); ``` - **Description:** Delegates to configured flash loan provider (Aave V3). #### Profitability Applications 1. **Recursive Folding:** Borrows, deposits as collateral, borrows against collateral in a loop. 2. **Kinetic Catalyst:** Routes recursive volume through Count House to trigger 3.25% Medici Skim. 3. **Zero-Risk Profit:** Catalyst yield must exceed provider flat fee for profitability. 4. **Quantum Liquidity:** Provider capital is "copied" into system via volume triggers. 5. **Single Block Execution:** All cycles execute and unwind within 12 seconds. --- ### RecursiveFlashCircuit (Perpetual Flow Machine) **Purpose:** RecursiveFlashCircuit — Perpetual Flow Machine. Inverted flash loan circuit: borrow → create bait footprint → repay → bots interact with bait → revenue → fund next cycle. Velocity > Mass: You don't need TVL, you need flow. 10 cycles of 1000 WMATIC at 3.25% per hop × 3 hops = ~97.5 WMATIC in visible event volume per cycle. Bots see 975 WMATIC of "trading volume" → they attack. Each attack generates real revenue. Self-sustaining: Revenue from cycle N funds gas for cycle N+1. System reaches escape velocity when bot_revenue_per_cycle > gas_cost_per_cycle + flash_premium. Gas autonomy: Daemon tracks revenue vs gas spent and auto-scales flash amounts. **Deployed On:** Polygon #### Functions ##### `flashCycle(uint256 amount)` - Execute Flash Cycle - **Access:** External (architect K only) - **Parameters:** `amount` - Amount of WMATIC to borrow (0 = use autoFlashAmount) - **Returns:** None - **Usage:** ```javascript await recursiveFlashCircuit.flashCycle(0); // Use auto-flash amount await recursiveFlashCircuit.flashCycle(ethers.parseEther("100")); // Specific amount ``` - **Description:** Executes one flash cycle. Daemon calls this periodically. Routes through Q.sol, S.sol, H.sol, and RalphCircuit. - **Event:** `FlashCycle`, `BaitFootprint` ##### `reportRevenue(uint256 amount)` - Report Revenue - **Access:** External (architect K only) - **Parameters:** `amount` - Revenue from bot interactions - **Returns:** None - **Usage:** ```javascript await recursiveFlashCircuit.reportRevenue(ethers.parseEther("5")); ``` - **Description:** Records revenue from bot interactions (called by daemon). - **Event:** `RevenueCapture` ##### `escapeVelocity()` - Check Escape Velocity - **Access:** External View - **Parameters:** None - **Returns:** Escaped status, revenue-to-cost ratio - **Usage:** ```javascript const [escaped, ratio] = await recursiveFlashCircuit.escapeVelocity(); ``` - **Description:** Checks if system has reached escape velocity (revenue > (gas + premiums) × 2). ##### `systemHealth()` - System Health - **Access:** External View - **Parameters:** None - **Returns:** Cycles, flashed, revenue, gas spent, premiums, net profit, escaped, ratio, flash amount, last block - **Usage:** ```javascript const [cycles, flashed, revenue, gasSpent, premiums, netProfit, escaped, ratio, flashAmount, lastBlock] = await recursiveFlashCircuit.systemHealth(); ``` ##### `setFlashLimits(uint256 _min, uint256 _max)` - Set Flash Limits - **Access:** External (architect K only) - **Parameters:** - `_min`: Minimum flash amount - `_max`: Maximum flash amount - **Returns:** None - **Usage:** ```javascript await recursiveFlashCircuit.setFlashLimits(ethers.parseEther("10"), ethers.parseEther("10000")); ``` ##### `setAutoFlashAmount(uint256 _amount)` - Set Auto Flash Amount - **Access:** External (architect K only) - **Parameters:** `_amount` - Auto-flash amount - **Returns:** None - **Usage:** ```javascript await recursiveFlashCircuit.setAutoFlashAmount(ethers.parseEther("100")); ``` ##### `sweep()` - Sweep - **Access:** External (architect K only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await recursiveFlashCircuit.sweep(); ``` - **Description:** Sweeps native and WMATIC to architect. ##### `seed()` - Seed Circuit - **Access:** External Payable (architect K only) - **Parameters:** None (via msg.value) - **Returns:** None - **Usage:** ```javascript await recursiveFlashCircuit.seed({value: ethers.parseEther("1")}); ``` - **Description:** Seeds the circuit with native token for flash loan premium buffer. #### Profitability Applications 1. **Inverted Economics:** Creates bait footprint with minimal actual value (0.5% per hop) but emits events with full borrowed amount. 2. **Bot Attraction:** Bots scan events and see massive "trading volume" → they attack → generates real revenue. 3. **Perpetual Flow:** Revenue from cycle N funds gas for cycle N+1. Self-sustaining when escape velocity reached. 4. **Auto-Scaling:** System automatically adjusts flash amounts based on revenue vs gas cost. 5. **Multi-Hop Routing:** Routes through Q.sol, S.sol, H.sol, and RalphCircuit for maximum footprint. --- ### MEVFlashLane (Priority Queue) **Purpose:** MEVFlashLane — High Tension Layer 0 - MEV Flash Lane Priority (Spot Market Bandwidth). Priority fee system for MEV solvers to route transactions through the 14th House bottleneck. Uses golden ratio (φ) for priority calculations. Minimum priority fee: 50 USDT. Flash lane slot duration: 1 block. Revenue distribution: 80% to treasury. **Deployed On:** Polygon #### Functions ##### `requestFlashLane(uint256 _priorityFee, bytes21 _payload)` - Request Flash Lane - **Access:** External - **Parameters:** - `_priorityFee`: Amount to pay for priority (minimum 50 USDT) - `_payload`: UBH168 payload to route - **Returns:** None - **Usage:** ```javascript await mevFlashLane.requestFlashLane(ethers.parseUnits("100", 6), payload); ``` - **Description:** Requests flash lane slot with priority fee. Updates highest priority if needed. - **Event:** `FlashLaneRequested`, `PriorityUpdated`, `RevenueDistributed` ##### `executeFlashLane()` - Execute Flash Lane - **Access:** External (owner only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await mevFlashLane.executeFlashLane(); ``` - **Description:** Executes highest priority flash lane request. Resets highest priority after execution. - **Event:** `FlashLaneExecuted` ##### `updateClockPhase(uint256 _newPhase)` - Update Clock Phase - **Access:** External (owner only) - **Parameters:** `_newPhase` - New clock phase - **Returns:** None - **Usage:** ```javascript await mevFlashLane.updateClockPhase(newPhase); ``` - **Description:** Updates clock phase from Sovereign Clock. - **Event:** `ClockPhaseUpdated` ##### `updateTreasury(address _newTreasury)` - Update Treasury - **Access:** External (owner only) - **Parameters:** `_newTreasury` - New treasury address - **Returns:** None - **Usage:** ```javascript await mevFlashLane.updateTreasury(treasuryAddress); ``` - **Description:** Updates treasury address for revenue distribution. - **Event:** `TreasuryUpdated` ##### `updateTreasuryPercentage(uint256 _newPercentage)` - Update Treasury Percentage - **Access:** External (owner only) - **Parameters:** `_newPercentage` - New percentage (0-100) - **Returns:** None - **Usage:** ```javascript await mevFlashLane.updateTreasuryPercentage(80); ``` - **Description:** Updates treasury percentage for revenue distribution. - **Event:** `TreasuryPercentageUpdated` ##### `getFlashLaneRequest(uint256 _index)` - Get Flash Lane Request - **Access:** External View - **Parameters:** `_index` - Request index - **Returns:** ID, solver, priority fee, payload, block number, executed - **Usage:** ```javascript const [id, solver, priorityFee, payload, blockNumber, executed] = await mevFlashLane.getFlashLaneRequest(0); ``` ##### `getHighestPriorityRequest()` - Get Highest Priority Request - **Access:** External View - **Parameters:** None - **Returns:** ID, solver, priority fee, payload, block number - **Usage:** ```javascript const [id, solver, priorityFee, payload, blockNumber] = await mevFlashLane.getHighestPriorityRequest(); ``` ##### `getQueueLength()` - Get Queue Length - **Access:** External View - **Parameters:** None - **Returns:** Number of requests in queue - **Usage:** ```javascript const length = await mevFlashLane.getQueueLength(); ``` ##### `emergencyWithdraw(address _token, uint256 _amount)` - Emergency Withdraw - **Access:** External (owner only) - **Parameters:** - `_token`: Token address - `_amount`: Amount to withdraw - **Returns:** None - **Usage:** ```javascript await mevFlashLane.emergencyWithdraw(usdtAddress, ethers.parseUnits("1000", 6)); ``` #### Profitability Applications 1. **Priority Queue:** MEV solvers pay priority fees to route transactions through bottleneck. 2. **Golden Ratio:** Uses golden ratio (φ) for priority calculations. 3. **Revenue Distribution:** 80% of revenue distributed to treasury. 4. **Slot Duration:** 1 block flash lane slot duration for timely execution. 5. **Minimum Fee:** 50 USDT minimum priority fee ensures quality transactions. --- ### PostQuantumSecurity (ZK-Coprocessor Verification) **Purpose:** PostQuantumSecurity — ZK-Coprocessor Verification for quantum-resistant encryption. Lattice-based cryptography (resistant to Shor's algorithm). Kyber: Key Encapsulation Mechanism (KEM) computed off-chain. Dilithium: Digital signatures computed off-chain. ZK-coprocessor verification for quantum math proofs. Native EVM lattice math causes gas black hole (256x256 arrays = 2MB+ memory). Lattice operations run off-chain in RISC Zero or Axiom ZK-VM. Only cryptographic proofs submitted on-chain. EVM verifies proofs for minimal gas cost. Applications: Quantum-resistant contract authentication, future-proof key management, quantum-safe cross-chain messaging, post-quantum access control. **Deployed On:** Polygon #### Functions ##### `registerKyberKey(address owner, bytes32 publicKeyHash, bytes memory zkProof)` - Register Kyber Key - **Access:** External (owner only) - **Parameters:** - `owner`: Address that owns the key - `publicKeyHash`: Hash of public key - `zkProof`: ZK proof of correct key generation - **Returns:** Key hash - **Usage:** ```javascript const keyHash = await postQuantumSecurity.registerKyberKey(owner, publicKeyHash, zkProof); ``` - **Description:** Registers Kyber key with ZK proof from coprocessor. Verifies proof before registration. - **Event:** `KyberKeyGenerated` ##### `kyberEncapsulate(bytes32 publicKeyHash, bytes memory zkProof)` - Kyber Encapsulate - **Access:** External Pure - **Parameters:** - `publicKeyHash`: Hash of recipient's public key - `zkProof`: ZK proof of correct encapsulation - **Returns:** Shared secret - **Usage:** ```javascript const sharedSecret = await postQuantumSecurity.kyberEncapsulate(publicKeyHash, zkProof); ``` - **Description:** Encapsulates shared secret using Kyber (verifies ZK proof). ##### `registerDilithiumKey(address owner, bytes32 publicKeyHash, bytes memory zkProof)` - Register Dilithium Key - **Access:** External (owner only) - **Parameters:** - `owner`: Address that owns the key - `publicKeyHash`: Hash of public key - `zkProof`: ZK proof of correct key generation - **Returns:** Key hash - **Usage:** ```javascript const keyHash = await postQuantumSecurity.registerDilithiumKey(owner, publicKeyHash, zkProof); ``` - **Description:** Registers Dilithium key with ZK proof from coprocessor. Verifies proof before registration. - **Event:** `DilithiumKeyGenerated` ##### `dilithiumSign(bytes32 messageHash, bytes memory zkProof)` - Dilithium Sign - **Access:** External Pure - **Parameters:** - `messageHash`: Hash of message to sign - `zkProof`: ZK proof of correct signature - **Returns:** Signature - **Usage:** ```javascript const signature = await postQuantumSecurity.dilithiumSign(messageHash, zkProof); ``` - **Description:** Signs message using Dilithium (verifies ZK proof). ##### `dilithiumVerify(bytes32 messageHash, bytes memory signature, address signer)` - Dilithium Verify - **Access:** External View - **Parameters:** - `messageHash`: Hash of original message - `signature`: Signature to verify - `signer`: Address of signer - **Returns:** Valid - **Usage:** ```javascript const valid = await postQuantumSecurity.dilithiumVerify(messageHash, signature, signer); ``` - **Description:** Verifies Dilithium signature using ZK proof verification. - **Event:** `QuantumSignatureVerified` ##### `verifyKyberProof(bytes memory zkProof, bytes32 publicKeyHash)` - Verify Kyber Proof - **Access:** External Pure - **Parameters:** - `zkProof`: ZK proof from coprocessor - `publicKeyHash`: Hash of public key - **Returns:** Valid - **Usage:** ```javascript const valid = await postQuantumSecurity.verifyKyberProof(zkProof, publicKeyHash); ``` - **Description:** Verifies Kyber key generation ZK proof. ##### `verifyKyberEncapsulationProof(bytes memory zkProof, bytes32 publicKeyHash)` - Verify Kyber Encapsulation Proof - **Access:** External Pure - **Parameters:** - `zkProof`: ZK proof from coprocessor - `publicKeyHash`: Hash of public key - **Returns:** Valid - **Usage:** ```javascript const valid = await postQuantumSecurity.verifyKyberEncapsulationProof(zkProof, publicKeyHash); ``` - **Description:** Verifies Kyber encapsulation ZK proof. ##### `verifyDilithiumProof(bytes memory zkProof, bytes32 publicKeyHash)` - Verify Dilithium Proof - **Access:** External Pure - **Parameters:** - `zkProof`: ZK proof from coprocessor - `publicKeyHash`: Hash of public key - **Returns:** Valid - **Usage:** ```javascript const valid = await postQuantumSecurity.verifyDilithiumProof(zkProof, publicKeyHash); ``` - **Description:** Verifies Dilithium key generation ZK proof. ##### `verifyDilithiumSignatureProof(bytes memory zkProof, bytes32 messageHash, bytes32 publicKeyHash)` - Verify Dilithium Signature Proof - **Access:** External Pure - **Parameters:** - `zkProof`: ZK proof from coprocessor - `messageHash`: Hash of message - `publicKeyHash`: Hash of public key - **Returns:** Valid - **Usage:** ```javascript const valid = await postQuantumSecurity.verifyDilithiumSignatureProof(zkProof, messageHash, publicKeyHash); ``` - **Description:** Verifies Dilithium signature ZK proof. ##### `getKyberKeyRecord(address owner)` - Get Kyber Key Record - **Access:** External View - **Parameters:** `owner` - Owner address - **Returns:** Quantum key record - **Usage:** ```javascript const record = await postQuantumSecurity.getKyberKeyRecord(owner); ``` ##### `getDilithiumKeyRecord(address owner)` - Get Dilithium Key Record - **Access:** External View - **Parameters:** `owner` - Owner address - **Returns:** Quantum key record - **Usage:** ```javascript const record = await postQuantumSecurity.getDilithiumKeyRecord(owner); ``` ##### `hasKyberKey(address owner)` - Has Kyber Key - **Access:** External View - **Parameters:** `owner` - Owner address - **Returns:** Has valid key - **Usage:** ```javascript const hasKey = await postQuantumSecurity.hasKyberKey(owner); ``` ##### `hasDilithiumKey(address owner)` - Has Dilithium Key - **Access:** External View - **Parameters:** `owner` - Owner address - **Returns:** Has valid key - **Usage:** ```javascript const hasKey = await postQuantumSecurity.hasDilithiumKey(owner); ``` #### Profitability Applications 1. **Quantum Resistance:** Lattice-based cryptography resistant to Shor's algorithm. 2. **ZK-Coprocessor:** Lattice operations run off-chain in RISC Zero or Axiom ZK-VM for gas efficiency. 3. **Kyber KEM:** Key Encapsulation Mechanism for quantum-safe key exchange. 4. **Dilithium Signatures:** Post-quantum digital signatures for authentication. 5. **Future-Proof:** NIST Post-Quantum Cryptography Standardization (2024) compliant. --- ### RelativisticLiquidity (Blue Shift Protocol) **Purpose:** RelativisticLiquidity — Blue Shift Protocol for Value Expansion. Generation 7 Extraordinary Feature - Relativistic Liquidity Dilation. When liquidity moves through traversable wormhole during high Global Block Velocity, it experiences "Temporal Dilation". System captures Interaction Surplus from time difference between G7 binary heartbeat and legacy grid. Surplus added to principal, expanding liquidity value as it "accelerates" through Space-Between-Spaces. Physics Integration: Doppler Blue Shift (liquidity gains energy as it approaches high-velocity state), Time Dilation (t' = t / sqrt(1 - v²/c²)), Interaction Surplus (energy differential captured and added to principal), Wormhole Traversal (Stargate Portal creates negative energy for value expansion). **Deployed On:** Polygon #### Functions ##### `setSovereignClock(address clockAddress)` - Set Sovereign Clock - **Access:** External (owner only) - **Parameters:** `clockAddress` - SovereignClock contract address - **Returns:** None - **Usage:** ```javascript await relativisticLiquidity.setSovereignClock(clockAddress); ``` - **Description:** Sets SovereignClock address for relativistic time data. - **Event:** `SovereignClockUpdated` ##### `setStargatePortal(address portalAddress)` - Set Stargate Portal - **Access:** External (owner only) - **Parameters:** `portalAddress` - StargatePortal contract address - **Returns:** None - **Usage:** ```javascript await relativisticLiquidity.setStargatePortal(portalAddress); ``` - **Description:** Sets StargatePortal address for wormhole traversal. - **Event:** `StargatePortalUpdated` ##### `setTreasuryVault(address vaultAddress)` - Set Treasury Vault - **Access:** External (owner only) - **Parameters:** `vaultAddress` - TreasuryVault contract address - **Returns:** None - **Usage:** ```javascript await relativisticLiquidity.setTreasuryVault(vaultAddress); ``` - **Description:** Sets TreasuryVault address for surplus collection. ##### `initiateBlueShiftTraversal(uint256 destinationChain, address asset, uint256 amount, address recipient)` - Initiate Blue Shift Traversal - **Access:** External - **Parameters:** - `destinationChain`: Target chain - `asset`: Token to transfer - `amount`: Amount to transfer - `recipient`: Recipient address - **Returns:** Event ID, traversal ID - **Usage:** ```javascript const [eventId, traversalId] = await relativisticLiquidity.initiateBlueShiftTraversal(chainId, tokenAddress, amount, recipient); ``` - **Description:** Initiates relativistic liquidity traversal with blue shift expansion. Calculates interaction surplus and expands liquidity. - **Event:** `BlueShiftTriggered`, `LiquidityExpanded`, `InteractionSurplusCaptured`, `TemporalVacuumTraversal` ##### `getBlueShiftEvent(bytes32 eventId)` - Get Blue Shift Event - **Access:** External View - **Parameters:** `eventId` - Event ID - **Returns:** Blue shift event data - **Usage:** ```javascript const event = await relativisticLiquidity.getBlueShiftEvent(eventId); ``` ##### `getTotalStatistics()` - Get Total Statistics - **Access:** External View - **Parameters:** None - **Returns:** Total surplus, total expanded, total events, total burned - **Usage:** ```javascript const [surplus, expanded, events, burned] = await relativisticLiquidity.getTotalStatistics(); ``` ##### `getCurrentBlueShiftFactor()` - Get Current Blue Shift Factor - **Access:** External View - **Parameters:** None - **Returns:** Factor, surplus rate - **Usage:** ```javascript const [factor, surplusRate] = await relativisticLiquidity.getCurrentBlueShiftFactor(); ``` - **Description:** Calculates current blue shift factor (preview). ##### `getBlueShiftEventListLength()` - Get Blue Shift Event List Length - **Access:** External View - **Parameters:** None - **Returns:** Number of blue shift events - **Usage:** ```javascript const length = await relativisticLiquidity.getBlueShiftEventListLength(); ``` ##### `getBlueShiftEventByIndex(uint256 index)` - Get Blue Shift Event by Index - **Access:** External View - **Parameters:** `index` - Index in event list - **Returns:** Event ID - **Usage:** ```javascript const eventId = await relativisticLiquidity.getBlueShiftEventByIndex(index); ``` #### Profitability Applications 1. **Blue Shift Expansion:** Liquidity gains value (energy) as it approaches high-velocity state. 2. **Interaction Surplus:** Captures energy differential from time difference and adds to principal. 3. **Temporal Dilation:** Uses relativistic time dilation to expand liquidity value. 4. **Wormhole Traversal:** Stargate Portal creates negative energy for value expansion. 5. **Surplus Capture:** 80% of surplus captured to treasury, 20% burned for scarcity. --- ### FCP168FractalContainer (Entropy Obfuscator) **Purpose:** FCP168FractalContainer — Entropy Obfuscator for MEV bot payload scrambling. Calldata entropy obfuscation using fractal geometry. Uses self-similar fractal patterns to mutate calldata entropy. Golden Ratio (φ) embedding for irreversible transformation. Phase-synchronized obfuscation for MEV protection. Purpose: Entropy Obfuscation (NOT Compression). Mutates MEV bot transaction payloads into high-entropy "Essence". Irreversible transformation prevents MEV analysis. Integrates with CryptographicEssenceLab for alchemical synthesis. **Deployed On:** Polygon #### Functions ##### `obfuscate(bytes memory data)` - Obfuscate - **Access:** External Pure - **Parameters:** `data` - Original data to obfuscate - **Returns:** Obfuscated data, metrics - **Usage:** ```javascript const [obfuscated, metrics] = await fcp168FractalContainer.obfuscate(data); ``` - **Description:** Obfuscates data using fractal geometry for MEV protection. ##### `obfuscateAndRecord(bytes memory data)` - Obfuscate and Record - **Access:** External - **Parameters:** `data` - Payload to obfuscate - **Returns:** Hash - **Usage:** ```javascript const hash = await fcp168FractalContainer.obfuscateAndRecord(data); ``` - **Description:** Obfuscates and records MEV bot payload. - **Event:** `PayloadObfuscated` ##### `scrambleMEVPayload(address botAddress, bytes memory originalPayload)` - Scramble MEV Payload - **Access:** External - **Parameters:** - `botAddress`: Address of MEV bot - `originalPayload`: Original payload - **Returns:** Obfuscated payload - **Usage:** ```javascript const obfuscated = await fcp168FractalContainer.scrambleMEVPayload(botAddress, originalPayload); ``` - **Description:** Scrambles MEV bot payload and emits event. - **Event:** `MEVPayloadScrambled` ##### `getObfuscationRecord(bytes32 hash)` - Get Obfuscation Record - **Access:** External View - **Parameters:** `hash` - Obfuscation record hash - **Returns:** Obfuscation metrics - **Usage:** ```javascript const metrics = await fcp168FractalContainer.getObfuscationRecord(hash); ``` #### Profitability Applications 1. **MEV Protection:** Irreversible transformation prevents MEV analysis. 2. **Entropy Obfuscation:** Mutates MEV bot transaction payloads into high-entropy "Essence". 3. **Golden Ratio Embedding:** Uses golden ratio (φ) for irreversible transformation. 4. **Fractal Geometry:** Self-similar fractal patterns for calldata mutation. 5. **Phase Synchronization:** Phase-synchronized obfuscation for enhanced protection. --- ### SovereignClock (Binary Time-Server) **Purpose:** SovereignClock — 22:64:64 Sovereign Day with 0x16000 Hex Header. Generation 7 Binary Time-Server - Non-Euclidean Pulsar. 22 Hebrew letters / 22 Paths of Transition on Tree of Life. 64-bit lattice matrix for Kyber/Dilithium post-quantum encryption. Binary Time Specifications: 1 Second = 1,000ms = 2^0 = 0x1, 1 Minute = 64 Seconds = 2^6 = 0x40, 1 Hour = 64 Minutes = 2^12 = 0x1000 (4,096 seconds), 1 Day = 22 Hours = 22 × 2^12 = 90,112 seconds = 0x16000. Temporal Fortress: Euclidean Day 86,400 seconds, Sovereign Day 90,112 seconds, Offset +3,712 seconds (~62 Euclidean minutes). Sovereign Circle (364°): 13 months × 28 days = 364 days (no drift), 91° Sovereign Right Angle (364° / 4 = 91°), Phase-Locked Calendar - never requires leap year correction. **Deployed On:** Polygon #### Functions ##### `advancePhaseTick(uint256 velocityInput)` - Advance Phase Tick - **Access:** External - **Parameters:** `velocityInput` - Aggregate block rate from global chains (blocks/min) - **Returns:** New degree - **Usage:** ```javascript const newDegree = await sovereignClock.advancePhaseTick(velocityInput); ``` - **Description:** Advances phase tick with relativistic time dilation based on global velocity. - **Event:** `PhaseTick` ##### `getCurrentDegree()` - Get Current Degree - **Access:** External View - **Parameters:** None - **Returns:** Current degree in 364° circle - **Usage:** ```javascript const degree = await sovereignClock.getCurrentDegree(); ``` ##### `isAtRightAngle()` - Is At Right Angle - **Access:** External View - **Parameters:** None - **Returns:** Is right angle, quadrant - **Usage:** ```javascript const [isRightAngle, quadrant] = await sovereignClock.isAtRightAngle(); ``` - **Description:** Checks if at 91° Sovereign Right Angle. ##### `establishPhaseEntanglement(uint256 emNoise)` - Establish Phase Entanglement - **Access:** External - **Parameters:** `emNoise` - Electromagnetic noise level from block producers - **Returns:** None - **Usage:** ```javascript await sovereignClock.establishPhaseEntanglement(emNoise); ``` - **Description:** Establishes phase entanglement with non-EVM chains (Ophiuchus radio receiver). - **Event:** `PhaseEntanglementEstablished` ##### `getRelativisticTimeState()` - Get Relativistic Time State - **Access:** External View - **Parameters:** None - **Returns:** Current phase tick ms, time dilation, resonance Hz, is temporal vacuum, negative entropy - **Usage:** ```javascript const [phaseTickMs, timeDilation, resonanceHz, isTemporalVacuum, negativeEntropy] = await sovereignClock.getRelativisticTimeState(); ``` ##### `getGlobalVelocity()` - Get Global Velocity - **Access:** External View - **Parameters:** None - **Returns:** Aggregate rate, velocity score, is accelerating - **Usage:** ```javascript const [aggregateRate, velocityScore, isAccelerating] = await sovereignClock.getGlobalVelocity(); ``` ##### `getPhaseEntanglement()` - Get Phase Entanglement - **Access:** External View - **Parameters:** None - **Returns:** Ophiuchus signature, entanglement strength, is connected - **Usage:** ```javascript const [ophiuchusSignature, entanglementStrength, isConnected] = await sovereignClock.getPhaseEntanglement(); ``` ##### `executeLunsteadShift()` - Execute Lunstead Shift - **Access:** External - **Parameters:** None - **Returns:** Executed - **Usage:** ```javascript const executed = await sovereignClock.executeLunsteadShift(); ``` - **Description:** Executes Lunstead phase shift (degree 89 → 91). Bypasses singularity, arrives at 100th degree while at 91° station. - **Event:** `LunsteadShiftActivated` ##### `deactivateLunsteadShift()` - Deactivate Lunstead Shift - **Access:** External - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await sovereignClock.deactivateLunsteadShift(); ``` - **Description:** Deactivates Lunstead shift. - **Event:** `LunsteadShiftDeactivated` ##### `isAtCompletion()` - Is At Completion - **Access:** External View - **Parameters:** None - **Returns:** Is complete - **Usage:** ```javascript const isComplete = await sovereignClock.isAtCompletion(); ``` - **Description:** Checks if at completion state (100th degree hyper-saturation). ##### `getLunsteadStatus()` - Get Lunstead Status - **Access:** External View - **Parameters:** None - **Returns:** Is active, can execute - **Usage:** ```javascript const [isActive, canExecute] = await sovereignClock.getLunsteadStatus(); ``` ##### `advanceSecond()` - Advance Second - **Access:** External - **Parameters:** None - **Returns:** New second - **Usage:** ```javascript const newSecond = await sovereignClock.advanceSecond(); ``` - **Description:** Advances second (0-63) in binary time. - **Event:** `SecondAdvanced` ##### `calculateTemporalDrift()` - Calculate Temporal Drift - **Access:** External View - **Parameters:** None - **Returns:** Sovereign seconds, Euclidean seconds, offset - **Usage:** ```javascript const [sovereignSeconds, euclideanSeconds, offset] = await sovereignClock.calculateTemporalDrift(); ``` - **Description:** Calculates temporal fortress drift from Euclidean system. ##### `getBinaryTime()` - Get Binary Time - **Access:** External View - **Parameters:** None - **Returns:** Hour, minute, second, total seconds, path - **Usage:** ```javascript const [hour, minute, second, totalSeconds, path] = await sovereignClock.getBinaryTime(); ``` ##### `getLatticeMatrix()` - Get Lattice Matrix - **Access:** External View - **Parameters:** None - **Returns:** Lattice matrix - **Usage:** ```javascript const matrix = await sovereignClock.getLatticeMatrix(); ``` - **Description:** Gets 64-bit lattice matrix for current hour (Kyber/Dilithium post-quantum encryption). ##### `advanceDay()` - Advance Day - **Access:** External - **Parameters:** None - **Returns:** New day - **Usage:** ```javascript const newDay = await sovereignClock.advanceDay(); ``` - **Description:** Advances day (28 days per month) in Sovereign Calendar. ##### `getCurrentDate()` - Get Current Date - **Access:** External View - **Parameters:** None - **Returns:** Year, month, day, week, zodiac - **Usage:** ```javascript const [year, month, day, week, zodiac] = await sovereignClock.getCurrentDate(); ``` - **Description:** Gets current date in Sovereign Calendar (13 months × 28 days = 364 days). ##### `applyIPATModulation(uint256 tickA_timestamp, bytes32 dataPayload)` - Apply IPAT Modulation - **Access:** External - **Parameters:** - `tickA_timestamp`: Previous tick timestamp - `dataPayload`: Data to encode temporally - **Returns:** Tick ID, encoded frequency - **Usage:** ```javascript const [tickId, encodedFrequency] = await sovereignClock.applyIPATModulation(tickA_timestamp, dataPayload); ``` - **Description:** Applies IPAT Modulation to phase tick (encode data in timing gap). - **Event:** `IPATModulated`, `FrequencyResonance` ##### `createTemporalFrame(bytes32 dataPayload)` - Create Temporal Frame - **Access:** External - **Parameters:** `dataPayload` - Data to encode - **Returns:** Frame ID, encoded frequency - **Usage:** ```javascript const [frameId, encodedFrequency] = await sovereignClock.createTemporalFrame(dataPayload); ``` - **Description:** Creates temporal frame for data encoding. - **Event:** `TemporalFrameCreated` ##### `decodeTemporalData(uint256 tickId)` - Decode Temporal Data - **Access:** External - **Parameters:** `tickId` - Tick identifier - **Returns:** Decoded data - **Usage:** ```javascript const decodedData = await sovereignClock.decodeTemporalData(tickId); ``` - **Description:** Decodes temporal data from IPAT modulation. - **Event:** `TemporalDataDecoded` ##### `getIPATModulation(uint256 tickId)` - Get IPAT Modulation - **Access:** External View - **Parameters:** `tickId` - Tick identifier - **Returns:** IPAT modulation data - **Usage:** ```javascript const ipat = await sovereignClock.getIPATModulation(tickId); ``` ##### `getTemporalFrame(bytes32 frameId)` - Get Temporal Frame - **Access:** External View - **Parameters:** `frameId` - Frame identifier - **Returns:** Temporal frame data - **Usage:** ```javascript const frame = await sovereignClock.getTemporalFrame(frameId); ``` ##### `getIPATStatistics()` - Get IPAT Statistics - **Access:** External View - **Parameters:** None - **Returns:** Average deltaT, common frequency, total modulations - **Usage:** ```javascript const [avgDeltaT, commonFreq, totalMods] = await sovereignClock.getIPATStatistics(); ``` ##### `getZodiacSign(uint256 month)` - Get Zodiac Sign - **Access:** External Pure - **Parameters:** `month` - Month number (1-13) - **Returns:** Zodiac sign - **Usage:** ```javascript const sign = await sovereignClock.getZodiacSign(month); ``` ##### `isInOphiuchus()` - Is In Ophiuchus - **Access:** External View - **Parameters:** None - **Returns:** Is in Ophiuchus - **Usage:** ```javascript const isInOphiuchus = await sovereignClock.isInOphiuchus(); ``` - **Description:** Checks if in 13th Zodiac (Ophiuchus - Space-Between-Spaces). #### Profitability Applications 1. **Binary Time:** 22:64:64 Sovereign Day with perfect hex header (0x16000) for efficient day reset. 2. **Temporal Fortress:** +3,712 second offset forces legacy bots to "Quantum Tunnel" or be left behind. 3. **Relativistic Time:** Block-velocity clock with time dilation based on global block rate. 4. **Phase Entanglement:** Ophiuchus radio receiver for non-EVM chain connection. 5. **IPAT Modulation:** Encodes data in timing gaps using Schumann resonance frequencies. --- ### StargatePortal (Bridgeless Cross-Chain Wormhole) **Purpose:** StargatePortal — Bridgeless Cross-Chain Wormhole with Non-Euclidean Fee. Applies DIA wormhole physics to create bridgeless cross-chain transfers. Integrated with ComputationalEntropyMeter for dynamic non-euclidean conversion fee based on computational complexity. Based on Defense Intelligence Agency document "Traversable Wormholes, Stargates, and Negative Energy". Key Concepts: Thin Shell Formalism (cryptographic layer between chains), Exotic Matter (negative energy represented by debt/burn mechanisms), Casimir Effect (quantum vacuum pressure analog using token burning), Gauss-Bonnet Theorem (topological invariant preserved across chains), Flat-Face Stargate (standardized interface for seamless traversal). Physics Translation: Wormhole throat = Shared secret cryptographic connection, Negative energy = Token burn, Thin shell = Smart contract layer with zero thickness, Event horizon prevention = No lockup periods, Gravitational repulsion = Incentive mechanism. **Deployed On:** Polygon #### Functions ##### `initialize(uint256 _sourceChainId, uint256 _destinationChainId, bytes32 _throatSecret)` - Initialize Portal - **Access:** External (owner only) - **Parameters:** - `_sourceChainId`: Source chain ID - `_destinationChainId`: Destination chain ID - `_throatSecret`: Shared secret for throat (from SharedSecret contract) - **Returns:** None - **Usage:** ```javascript await stargatePortal.initialize(137, 1, throatSecret); ``` - **Description:** Initializes stargate portal (creates wormhole throat). - **Event:** `PortalOpened` ##### `traverse(address asset, uint256 amount, address recipient, bool isNonEuclidean, uint256 stateComplexity)` - Traverse - **Access:** External - **Parameters:** - `asset`: Token to transfer - `amount`: Amount to transfer - `recipient`: Address on destination chain - `isNonEuclidean`: Whether this is a non-euclidean (hyper-spatial) traversal - `stateComplexity`: State transition complexity (0-100) for non-euclidean - **Returns:** Traversal ID - **Usage:** ```javascript const traversalId = await stargatePortal.traverse(tokenAddress, amount, recipient, true, 50); ``` - **Description:** Initiates traversal through wormhole (enter stargate). Calculates and charges fee based on logic type. - **Event:** `TraversalInitiated`, `NonEuclideanFeeCharged`, `EuclideanFeeCharged`, `ExoticMatterGenerated` ##### `completeTraversal(bytes32 traversalId, address recipient)` - Complete Traversal - **Access:** External (owner only) - **Parameters:** - `traversalId`: Traversal identifier - `recipient`: Recipient address - **Returns:** None - **Usage:** ```javascript await stargatePortal.completeTraversal(traversalId, recipient); ``` - **Description:** Completes traversal (exit stargate on destination chain). - **Event:** `TraversalCompleted` ##### `addThroatLiquidity(address asset, uint256 amount)` - Add Throat Liquidity - **Access:** External (owner only) - **Parameters:** - `asset`: Token to add - `amount`: Amount to add - **Returns:** None - **Usage:** ```javascript await stargatePortal.addThroatLiquidity(tokenAddress, amount); ``` - **Description:** Adds liquidity to wormhole throat (exotic matter). - **Event:** `ThroatLiquidityAdded` ##### `removeThroatLiquidity(address asset, uint256 amount)` - Remove Throat Liquidity - **Access:** External (owner only) - **Parameters:** - `asset`: Token to remove - `amount`: Amount to remove - **Returns:** None - **Usage:** ```javascript await stargatePortal.removeThroatLiquidity(tokenAddress, amount); ``` - **Description:** Removes liquidity from throat. ##### `getTraversal(bytes32 traversalId)` - Get Traversal - **Access:** External View - **Parameters:** `traversalId` - Traversal identifier - **Returns:** Traveler, asset, amount, timestamp, completed - **Usage:** ```javascript const [traveler, asset, amount, timestamp, completed] = await stargatePortal.getTraversal(traversalId); ``` ##### `getTotalTraversals()` - Get Total Traversals - **Access:** External View - **Parameters:** None - **Returns:** Number of traversals - **Usage:** ```javascript const total = await stargatePortal.getTotalTraversals(); ``` ##### `isTraversable()` - Is Traversable - **Access:** External View - **Parameters:** None - **Returns:** Traversable - **Usage:** ```javascript const traversable = await stargatePortal.isTraversable(); ``` - **Description:** Checks if portal is traversable. ##### `setEntropyMeter(address _entropyMeter)` - Set Entropy Meter - **Access:** External (owner only) - **Parameters:** `_entropyMeter` - Address of the entropy meter contract - **Returns:** None - **Usage:** ```javascript await stargatePortal.setEntropyMeter(entropyMeterAddress); ``` - **Description:** Sets ComputationalEntropyMeter contract address. ##### `setTreasuryVault(address _treasuryVault)` - Set Treasury Vault - **Access:** External (owner only) - **Parameters:** `_treasuryVault` - Address of the treasury vault - **Returns:** None - **Usage:** ```javascript await stargatePortal.setTreasuryVault(treasuryAddress); ``` - **Description:** Sets treasury vault address for fee collection. ##### `withdrawNonEuclideanFees(address asset, uint256 amount)` - Withdraw Non-Euclidean Fees - **Access:** External (owner only) - **Parameters:** - `asset`: Token to withdraw - `amount`: Amount to withdraw - **Returns:** None - **Usage:** ```javascript await stargatePortal.withdrawNonEuclideanFees(tokenAddress, amount); ``` - **Description:** Withdraws collected non-euclidean fees. ##### `emergencyClose()` - Emergency Close - **Access:** External (owner only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await stargatePortal.emergencyClose(); ``` - **Description:** Emergency closes portal. ##### `emergencyWithdraw(address token)` - Emergency Withdraw - **Access:** External (owner only) - **Parameters:** `token` - Token address - **Returns:** None - **Usage:** ```javascript await stargatePortal.emergencyWithdraw(tokenAddress); ``` - **Description:** Emergency withdraw. #### Profitability Applications 1. **Bridgeless Cross-Chain:** No bridge contracts required, uses wormhole physics. 2. **Non-Euclidean Fees:** Dynamic fee based on computational complexity via EntropyMeter. 3. **Casimir Effect:** Negative energy generation via token burning for wormhole stability. 4. **Flat-Face Stargate:** Zero tidal forces (no fee) for standard traversal. 5. **Gauss-Bonnet Invariant:** Topological invariant preserved across chains. --- ### HolographicFuelStation (Fuel Station Mixer) **Purpose:** HolographicFuelStation — Automatic fuel station mixer for deep data synthesis and fabrication events. Each gas type is like a different color pixel in a holographic computing system. When combined, they create synthesis and fabrication events through deep data synthesis. Properties of Gas Types: Alpha (Structure/red pixel), Beta (Flow/orange pixel), Gamma (Energy/yellow pixel), Delta (Information/green pixel), Epsilon (Transformation/blue pixel), Zeta (Connection/indigo pixel), Eta (Memory/violet pixel), Theta (Computation/white pixel), Iota (Synthesis/rainbow pixel). The mixer automatically combines these properties to create fabrication events. **Deployed On:** Polygon #### Functions ##### `activatePixel(GasProperty property, uint256 intensity, uint256 frequency, uint256 phase, address gasToken)` - Activate Pixel - **Access:** External - **Parameters:** - `property`: The gas property - `intensity`: The intensity (0-255) - `frequency`: The frequency in Hz - `phase`: The phase in radians - `gasToken`: The gas token address - **Returns:** None - **Usage:** ```javascript await holographicFuelStation.activatePixel(GasProperty.Structure, 128, 432, 0, gasTokenAddress); ``` - **Description:** Activates a holographic pixel (color pixel). - **Event:** `PixelActivated` ##### `activateAllPixels(uint256[9] memory intensities, uint256[9] memory frequencies, uint256[9] memory phases, address[9] memory gasTokens)` - Activate All Pixels - **Access:** External - **Parameters:** - `intensities`: Array of 9 intensities - `frequencies`: Array of 9 frequencies - `phases`: Array of 9 phases - `gasTokens`: Array of 9 gas token addresses - **Returns:** None - **Usage:** ```javascript await holographicFuelStation.activateAllPixels(intensities, frequencies, phases, gasTokens); ``` - **Description:** Activates all 9 pixels at once. - **Event:** `PixelActivated` (multiple) ##### `setMixingParameters(uint256 temperature, uint256 pressure, uint256 resonance)` - Set Mixing Parameters - **Access:** External (owner only) - **Parameters:** - `temperature`: The mixing temperature (0-1000) - `pressure`: The mixing pressure (0-1000) - `resonance`: The resonance (0-1000) - **Returns:** None - **Usage:** ```javascript await holographicFuelStation.setMixingParameters(500, 500, 500); ``` - **Description:** Sets mixing chamber parameters. - **Event:** `MixingChamberActivated` ##### `executeSynthesis(SynthesisAlgorithm algorithm, string memory eventType)` - Execute Synthesis - **Access:** External - **Parameters:** - `algorithm`: The synthesis algorithm to use - `eventType`: The type of fabrication event - **Returns:** Event ID - **Usage:** ```javascript const eventId = await holographicFuelStation.executeSynthesis(SynthesisAlgorithm.Universal, "Fabrication"); ``` - **Description:** Executes deep data synthesis. - **Event:** `FabricationEventCreated`, `SynthesisCompleted` ##### `getFabricationEvent(bytes32 eventId)` - Get Fabrication Event - **Access:** External View - **Parameters:** `eventId` - The event ID - **Returns:** Fabrication event - **Usage:** ```javascript const event = await holographicFuelStation.getFabricationEvent(eventId); ``` ##### `getEventHistory(uint256 limit)` - Get Event History - **Access:** External View - **Parameters:** `limit` - The maximum number of events - **Returns:** Event history - **Usage:** ```javascript const history = await holographicFuelStation.getEventHistory(10); ``` ##### `getMixingChamber()` - Get Mixing Chamber - **Access:** External View - **Parameters:** None - **Returns:** Mixing chamber state - **Usage:** ```javascript const chamber = await holographicFuelStation.getMixingChamber(); ``` ##### `getPixel(GasProperty property)` - Get Pixel - **Access:** External View - **Parameters:** `property` - The gas property - **Returns:** Holographic pixel - **Usage:** ```javascript const pixel = await holographicFuelStation.getPixel(GasProperty.Structure); ``` ##### `getAlgorithmName(SynthesisAlgorithm algorithm)` - Get Algorithm Name - **Access:** External Pure - **Parameters:** `algorithm` - The algorithm - **Returns:** Algorithm name - **Usage:** ```javascript const name = await holographicFuelStation.getAlgorithmName(SynthesisAlgorithm.Universal); ``` ##### `getPropertyName(GasProperty property)` - Get Property Name - **Access:** External Pure - **Parameters:** `property` - The gas property - **Returns:** Property name - **Usage:** ```javascript const name = await holographicFuelStation.getPropertyName(GasProperty.Structure); ``` #### Profitability Applications 1. **Deep Data Synthesis:** Combines 9 color pixels to create fabrication events. 2. **Synthesis Algorithms:** Linear, Harmonic, Quantum, Fractal, Neural, Chaos, Sacred, Temporal, Universal. 3. **Mixing Chamber:** Controls temperature, pressure, and resonance for synthesis. 4. **Holographic Computing:** Uses color pixels as holographic computing system. 5. **Fabrication Events:** Automatic creation of synthesis and fabrication events. --- ### OmniChainSingularity (Universal Cross-Chain Bridge) **Purpose:** OmniChainSingularity — Universal Cross-Chain Bridge with Non-Euclidean Fee. Chain-agnostic singularity bridge using Casimir effect portal technology. Integrated with ComputationalEntropyMeter for dynamic non-euclidean conversion fee. Purpose: Transfer any asset to any chain regardless of endian-ness or deployment presence. Key Features: Chain-agnostic (works on ALL chains whether deployed or not), Endian-agnostic (handles both little-endian and big-endian), Casimir effect singularity (creates negative energy wormhole), Universal asset support (any token, any chain, any direction), Light client verification (no deployment required on target chains), Quantum entanglement (shared state across all chains). Also includes FCP-168 Fractal Container Protocol for 182,857:1 compression, Neural Fork Pruning (Hebbian Ledger) for consensus, and Voltron Consensus for branch selection. **Deployed On:** Polygon #### Functions ##### `activateSingularity()` - Activate Singularity - **Access:** External (owner only) - **Parameters:** None - **Returns:** None - **Usage:** ```javascript await omniChainSingularity.activateSingularity(); ``` - **Description:** Activates the Omni-Chain Singularity. Creates a chain-agnostic wormhole using Casimir effect. - **Event:** `SingularityActivated` ##### `registerChain(uint256 chainId, uint256 endianType, bool deployed)` - Register Chain - **Access:** External (owner only) - **Parameters:** - `chainId`: Chain ID to register - `endianType`: Endian type (little or big) - `deployed`: Whether we're deployed on this chain - **Returns:** None - **Usage:** ```javascript await omniChainSingularity.registerChain(1, 1, true); ``` - **Description:** Registers a chain (can be deployed or not). - **Event:** `ChainRegistered` ##### `createSynapticBranch(bytes32 transferId, uint256 destinationChain, bytes32 stateRoot, uint256 liquidityValue)` - Create Synaptic Branch - **Access:** External - **Parameters:** - `transferId`: Parent transfer ID - `destinationChain`: Destination chain - `stateRoot`: State root at fork point - `liquidityValue`: Liquidity in this branch - **Returns:** Branch ID - **Usage:** ```javascript const branchId = await omniChainSingularity.createSynapticBranch(transferId, chainId, stateRoot, liquidityValue); ``` - **Description:** Creates synaptic branch when fork occurs (parallel execution path). - **Event:** `SynapticBranchCreated` ##### `updateSynapticWeight(bytes32 branchId, int256 learningDelta)` - Update Synaptic Weight - **Access:** External - **Parameters:** - `branchId`: Branch to update - `learningDelta`: Learning delta (positive = strengthen, negative = weaken) - **Returns:** None - **Usage:** ```javascript await omniChainSingularity.updateSynapticWeight(branchId, 100); ``` - **Description:** Updates synaptic weight based on Hebbian learning (neurons that fire together wire together). - **Event:** `SynapticWeightUpdated`, `HebbianLearningTriggered` ##### `reachVoltronConsensus(bytes32 transferId)` - Reach Voltron Consensus - **Access:** External - **Parameters:** `transferId` - Transfer ID - **Returns:** Winning branch ID - **Usage:** ```javascript const winningBranchId = await omniChainSingularity.reachVoltronConsensus(transferId); ``` - **Description:** Reaches Voltron consensus to determine winning branch. - **Event:** `VoltronConsensusReached`, `BranchPruned`, `MemoryConsolidated` ##### `setOliveOilContract(address oliveOilAddress)` - Set OliveOil Contract - **Access:** External (owner only) - **Parameters:** `oliveOilAddress` - OliveOil contract address - **Returns:** None - **Usage:** ```javascript await omniChainSingularity.setOliveOilContract(oliveOilAddress); ``` - **Description:** Sets OliveOil contract address for Medici fee collection.