Secure framework for autonomous agent coordination with modular security and cross-chain capabilities
The Agent Coordination Framework implements ERC-8001, providing a standardized, secure infrastructure for autonomous agents to coordinate complex operations in DeFi/GameFi, MEV extraction, cross-chain arbitrage, in-game NPCs and automated market making.
- Multi-Level Security: Four-tier security system (BASIC → STANDARD → ENHANCED → MAXIMUM)
- Cryptographic Guarantees: EIP-712 compliant signatures with replay protection
- Cross-Chain Ready: Built for multi-chain coordination scenarios
- Gas Optimized: Efficient batch operations and modular architecture
- Autonomous: Direct agent-to-agent coordination without trusted intermediaries
- ERC Compatible: Works alongside ERC-7683 and ERC-7521
┌─────────────────────────────────────────────────────────────┐
│ Agent Coordination Framework │
├─────────────────────────────────────────────────────────────┤
│ Core Framework │ Security Module │
│ ├─ Intent Management │ ├─ Access Control │
│ ├─ Multi-party Consensus│ ├─ Encryption Engine │
│ ├─ EIP-712 Signatures │ ├─ Timelock Protection │
│ └─ Execution Engine │ └─ Emergency Procedures │
├─────────────────────────────────────────────────────────────┤
│ Optional Modules │
│ ├─ Batch Coordination ├─ Cross-Chain Bridge │
│ ├─ Agent Discovery └─ Integration Examples │
└─────────────────────────────────────────────────────────────┘
# Clone the repository
git clone https://github.com/kbryan/erc-8001
cd erc-8001
# Install dependencies
forge install
# Build the project
forge build
# Run tests
forge test
import "./src/AgentCoordinationFramework.sol";
import "./src/AgentSecurityModule.sol";
// Deploy framework
AgentCoordinationFramework coordination = new AgentCoordinationFramework();
AgentSecurityModule security = new AgentSecurityModule(address(coordination));
// Create secure coordination intent
IAgentCoordinationCore.AgentIntent memory intent = IAgentCoordinationCore.AgentIntent({
payloadHash: computedHash,
expiry: uint64(block.timestamp + 3600),
nonce: 1,
chainId: uint32(block.chainid),
agentId: msg.sender,
coordinationType: keccak256("ARBITRAGE_V1"),
maxGasCost: 500000,
priority: 200,
dependencyHash: bytes32(0),
securityLevel: uint8(AgentSecurityModule.SecurityLevel.ENHANCED),
participants: [agent1, agent2, agent3],
coordinationValue: 10 ether
});
// Sign and propose coordination
bytes memory signature = signIntent(intent, privateKey);
bytes32 intentHash = coordination.proposeCoordination(intent, signature, payload);
The AgentSecurityModule provides four progressive security levels:
Level | Timelock | Encryption | Proof Required | Use Cases |
---|---|---|---|---|
BASIC | None | Obfuscation | ❌ | Public coordination, testing |
STANDARD | 5 min | XOR | ❌ | Regular DeFi operations |
ENHANCED | 30 min | Multi-layer | ✅ | High-value arbitrage |
MAXIMUM | 2 hours | Advanced + PKI | ✅ | Critical infrastructure |
// Create enhanced security context
address[] memory participants = [alice, bob, charlie];
securityModule.createSecurityContext(
intentHash,
AgentSecurityModule.SecurityLevel.ENHANCED,
participants,
1800 // 30 minutes
);
// Encrypt sensitive coordination data
(bytes memory encryptedData, bytes memory keyData) =
securityModule.encryptCoordinationData(
strategicData,
participants,
AgentSecurityModule.SecurityLevel.ENHANCED
);
# Basic test run
forge test
# Verbose output with gas reporting
forge test -vvv --gas-report
# Run specific test suite
forge test --match-contract AgentSecurityModuleTest -vvv
# Generate coverage report
forge coverage
# Generate detailed HTML coverage report
forge coverage --report lcov
genhtml lcov.info -o coverage-report
Ran 7 tests for test/FixedAddressTest.t.sol:FixedAddressTest
Suite result: ok. 7 passed; 0 failed
Ran 29 tests for test/AgentSecurityModule.t.sol:AgentSecurityModuleTest
Suite result: ok. 29 passed; 0 failed
Test result: ok. 36 passed; 0 failed; finished in 8.34s
Operation | Security Level | Gas Cost | Description |
---|---|---|---|
Create Context | BASIC | ~200k | Basic security setup |
Create Context | ENHANCED | ~260k | Enhanced security with encryption |
Propose Coordination | All | ~180k | Intent proposal with signatures |
Accept Coordination | All | ~90k | Participant acceptance |
Execute Coordination | All | ~120k | Final execution |
Encrypt Data | STANDARD | ~45k | Standard encryption |
Encrypt Data | ENHANCED | ~85k | Multi-layer encryption |
// Create secure arbitrage coordination
bytes32 intentHash = integrationContract.createSecureArbitrageCoordination(
tokenA, // WETH
tokenB, // USDC
participants, // [bot1, bot2, bot3]
expectedProfit, // 5 ETH
AgentSecurityModule.SecurityLevel.ENHANCED
);
// Participants accept with security validation
integrationContract.acceptSecureCoordination(
intentHash,
signedAttestation,
securityProof
);
// Execute with automatic decryption
integrationContract.executeSecureCoordination(
intentHash,
encryptedStrategy,
executionData,
finalSecurityProof
);
// Setup cross-chain coordination
CrossChainConfig memory config = CrossChainConfig({
targetChains: [1, 137, 42161], // Ethereum, Polygon, Arbitrum
targetContracts: [addr1, addr2, addr3],
executionData: [data1, data2, data3],
values: [0, 0, 0],
timeoutBlocks: 100,
dependencyHash: parentIntentHash,
requireAtomicity: true
});
crossChainModule.initiateCrossChainCoordination(
intentHash,
config,
proofData
);
AgentCoordinationFramework.sol
: Main coordination logic and EIP-712 implementationAgentSecurityModule.sol
: Multi-level security, encryption, and access controlSecurityIntegrationExample.sol
: Complete integration examples
AgentDiscoveryModule.sol
: Agent registration and reputation systemBatchCoordinationModule.sol
: Efficient batch operationsCrossChainCoordinationModule.sol
: Cross-chain coordination primitives
IAgentCoordinationCore
: Core coordination interfaceIAgentSecurityModule
: Security module interfaceIAgentCrossChain
: Cross-chain coordination interface
- EIP-712 Compliance: All signatures use structured data signing with domain separation
- Replay Protection: Monotonic nonces prevent replay attacks
- Hash Verification: All payloads verified during execution
- Value Limits:
coordinationValue
enables risk assessment - Gas Protection:
maxGasCost
prevents griefing attacks - Collateral Requirements: Can be extended with economic guarantees
- Emergency Procedures: Creator and owner can revoke access
- Upgrade Paths: Security levels can be upgraded but not downgraded
- Audit Trail: All events logged for transparency
- On-chain Transparency: All coordination is publicly visible (use encryption for sensitive data)
- Gas Costs: Complex coordination may be expensive
- Finality Dependencies: Cross-chain operations require careful finality handling
We welcome contributions! Please see our Contributing Guidelines for details.
# Clone with submodules
git clone --recursive https://github.com/your-org/erc-8001-agent-coordination
# Install pre-commit hooks
pre-commit install
# Run full test suite
make test
# Format code
make format
# Generate documentation
make docs
- Solidity Style: Follow Solidity Style Guide
- Testing: Maintain >95% test coverage
- Documentation: Document all public functions with NatSpec
- Security: All PRs require security review
- ERC-7683: Cross-chain intent framework
- ERC-7521: General intent framework
- EIP-712: Typed structured data hashing
- DeFi Arbitrage: Multi-DEX arbitrage coordination
- MEV Extraction: Coordinated MEV strategies
- Cross-Chain Operations: Atomic cross-chain transactions
- Market Making: Collaborative liquidity provision
- Yield Farming: Coordinated farming strategies
This project is licensed under CC0-1.0 - see the LICENSE file for details.
- Ethereum Foundation for EIP process and standards
- Foundry team for excellent development tools
- OpenZeppelin for security best practices
- Community reviewers and contributors
- Specification Discussion: Ethereum Magicians
- Issues: GitHub Issues
- Security: [email protected]
️ Disclaimer: This software is experimental and under active development. Use at your own risk in production environments. Always conduct thorough testing and security audits before deploying to mainnet.