Verification Protocols
5.1 Multi-Dimensional Verification Framework
WachXBT implements comprehensive verification across six critical dimensions:
5.1.1 Intent-Action Alignment Verification
Every proposed action undergoes intent parsing to confirm the agent's intended outcome matches the actual transaction parameters:
Intent_Score = Σ(w_i * similarity(expected_i, actual_i))
Where:
w_i
represents weights for different outcome dimensionssimilarity()
calculates semantic similarity between expected and actual outcomes
The verification system analyzes:
Transaction Parameters: Validating that amounts, addresses, and function calls align with stated intentions
Expected Outcomes: Comparing predicted results with agent's declared objectives
Strategy Coherence: Ensuring individual actions contribute to overall strategy goals
5.1.2 Smart Contract Interaction Validation
Before any contract interaction, WachXBT performs comprehensive contract state analysis:
contract ContractVerification {
struct ContractAnalysis {
bool isVerified;
uint256 riskScore;
bytes32 codeHash;
uint256 lastUpdate;
mapping(bytes4 => FunctionRisk) functionRisks;
}
struct FunctionRisk {
uint256 riskLevel;
bool requiresSimulation;
uint256 maxValue;
address[] trustedCallers;
}
}
The verification process includes:
Code Pattern Analysis: Identifying common vulnerability patterns and suspicious implementations
State Change Prediction: Simulating contract interactions to predict state changes
Access Control Verification: Validating that agents have appropriate permissions for proposed interactions
Proxy Contract Detection: Identifying and analyzing proxy implementations for upgrade risks
5.1.3 Token Due Diligence Framework
For any token-related operations, WachXBT implements multi-dimensional token verification:
Token_Risk = α*Technical_Risk + β*Market_Risk + γ*Liquidity_Risk + δ*Governance_Risk
Where α, β, γ, δ are dynamically adjusted weights based on operation type and market conditions.
Technical Risk Analysis:
Contract implementation patterns
Tokenomics parameter validation
Supply mechanism verification
Transfer restriction analysis
Market Risk Analysis:
Price manipulation indicators
Trading volume analysis
Holder distribution patterns
Market cap validation
Liquidity Risk Analysis:
DEX liquidity depth
Slippage impact prediction
Liquidity provider incentives
Withdrawal restriction detection
5.1.4 Cross-Protocol Composition Verification
WachXBT validates complex multi-step operations across different DeFi protocols:
Composition_Risk = Π(1 - Individual_Risk_i) * Interaction_Complexity_Factor
The system analyzes:
Protocol Integration Points: Identifying where different protocols interact
State Synchronization: Ensuring consistency across protocol states
Atomic Operation Requirements: Verifying that multi-step operations can complete atomically
Failure Mode Analysis: Predicting potential failure points and their impacts
5.2 Real-Time Simulation Engine
WachXBT employs advanced simulation capabilities to predict transaction outcomes before execution:
5.2.1 State Fork Simulation
The system creates isolated blockchain state forks for safe transaction simulation:
interface IStateSimulation {
function createFork(uint256 blockNumber) external returns (uint256 forkId);
function simulateTransaction(uint256 forkId, Transaction memory tx)
external returns (SimulationResult memory);
function analyzeForkState(uint256 forkId)
external view returns (StateAnalysis memory);
}
5.2.2 Market Impact Prediction
Advanced market impact models predict the effects of large transactions:
Price_Impact = sqrt(Trade_Size / Liquidity_Depth) * Volatility_Factor
The simulation considers:
Immediate Price Impact: Direct effects on asset prices
Secondary Effects: Cascading impacts across related markets
MEV Opportunities: Potential for front-running or sandwich attacks
Arbitrage Creation: New arbitrage opportunities created by the transaction
5.3 Dynamic Verification Thresholds
WachXBT employs adaptive verification thresholds that adjust based on market conditions and risk assessments:
Threshold_t = Base_Threshold * Market_Volatility_Factor * Agent_Trust_Score * Protocol_Risk_Factor
Where:
Base_Threshold
represents the minimum verification standardMarket_Volatility_Factor
adjusts based on current market conditionsAgent_Trust_Score
reflects the agent's historical performanceProtocol_Risk_Factor
accounts for protocol-specific risks
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