AdvancedQuantumPhysics

{{
  "language": "Solidity",
  "sources": {
    "AdvancedQuantumPhysics.sol": {
      "content": "// SPDX-License-Identifier: MIT
pragma solidity ^0.8.0;

/**
 * @title AdvancedQuantumPhysics
 * @dev Advanced quantum physics features: Entanglement, Interference, Tunneling, Superposition
 * @author zkaedi
 */
contract AdvancedQuantumPhysics {
    
    // Quantum Entanglement
    struct QuantumEntanglement {
        bytes32 state1;
        bytes32 state2;
        uint256 correlation;
        bool isEntangled;
        uint256 entanglementStrength;
    }
    
    // Quantum Interference
    struct QuantumInterference {
        bytes32 wave1;
        bytes32 wave2;
        uint256 phase;
        uint256 amplitude;
        bool constructive;
        uint256 interferencePattern;
    }
    
    // Quantum Tunneling
    struct QuantumTunneling {
        uint256 barrierHeight;
        uint256 particleEnergy;
        uint256 tunnelingProbability;
        bool tunneled;
        uint256 efficiency;
    }
    
    // Quantum Superposition
    struct QuantumSuperposition {
        bytes32[] states;
        uint256[] probabilities;
        uint256 coherenceTime;
        bool isCoherent;
        uint256 superpositionCount;
    }
    
    mapping(bytes32 => QuantumEntanglement) public quantumEntanglements;
    mapping(bytes32 => QuantumInterference) public quantumInterferences;
    mapping(bytes32 => QuantumTunneling) public quantumTunneling;
    mapping(bytes32 => QuantumSuperposition) public quantumSuperpositions;
    
    uint256 public totalEntanglements;
    uint256 public totalInterferences;
    uint256 public totalTunneling;
    uint256 public totalSuperpositions;
    
    event QuantumEntanglementCreated(bytes32 indexed entanglementId, uint256 correlation);
    event QuantumInterferenceDetected(bytes32 indexed interferenceId, bool constructive);
    event QuantumTunnelingOccurred(bytes32 indexed tunnelingId, uint256 efficiency);
    event QuantumSuperpositionCreated(bytes32 indexed superpositionId, uint256 stateCount);
    
    // ==================== QUANTUM ENTANGLEMENT ====================
    
    function createQuantumEntanglement(
        bytes32 state1,
        bytes32 state2
    ) external returns (bytes32) {
        bytes32 entanglementId = keccak256(abi.encodePacked(
            state1,
            state2,
            block.timestamp,
            totalEntanglements
        ));
        
        // Calculate quantum correlation
        uint256 correlation = uint256(keccak256(abi.encodePacked(state1, state2))) % 100;
        uint256 entanglementStrength = 90 + (block.timestamp % 10); // 90-99%
        
        QuantumEntanglement memory entanglement = QuantumEntanglement({
            state1: state1,
            state2: state2,
            correlation: correlation,
            isEntangled: true,
            entanglementStrength: entanglementStrength
        });
        
        quantumEntanglements[entanglementId] = entanglement;
        totalEntanglements++;
        
        emit QuantumEntanglementCreated(entanglementId, correlation);
        return entanglementId;
    }
    
    function measureEntangledState(
        bytes32 entanglementId,
        bool measureState1
    ) external view returns (bytes32, uint256) {
        require(quantumEntanglements[entanglementId].isEntangled, "Not entangled");
        
        QuantumEntanglement memory entanglement = quantumEntanglements[entanglementId];
        
        bytes32 measuredState = measureState1 ? entanglement.state1 : entanglement.state2;
        uint256 correlation = entanglement.correlation;
        
        return (measuredState, correlation);
    }
    
    function breakEntanglement(bytes32 entanglementId) external {
        require(quantumEntanglements[entanglementId].isEntangled, "Not entangled");
        
        quantumEntanglements[entanglementId].isEntangled = false;
    }
    
    // ==================== QUANTUM INTERFERENCE ====================
    
    function createQuantumInterference(
        bytes32 wave1,
        bytes32 wave2,
        uint256 phase
    ) external returns (bytes32) {
        bytes32 interferenceId = keccak256(abi.encodePacked(
            wave1,
            wave2,
            phase,
            block.timestamp,
            totalInterferences
        ));
        
        // Calculate interference pattern
        uint256 amplitude1 = uint256(keccak256(abi.encodePacked(wave1))) % 100;
        uint256 amplitude2 = uint256(keccak256(abi.encodePacked(wave2))) % 100;
        uint256 totalAmplitude = amplitude1 + amplitude2;
        
        bool constructive = (phase % 2) == 0;
        uint256 interferencePattern = constructive ? totalAmplitude : (totalAmplitude > 50 ? totalAmplitude - 50 : 0);
        
        QuantumInterference memory interference = QuantumInterference({
            wave1: wave1,
            wave2: wave2,
            phase: phase,
            amplitude: totalAmplitude,
            constructive: constructive,
            interferencePattern: interferencePattern
        });
        
        quantumInterferences[interferenceId] = interference;
        totalInterferences++;
        
        emit QuantumInterferenceDetected(interferenceId, constructive);
        return interferenceId;
    }
    
    function analyzeInterferencePattern(
        bytes32 interferenceId
    ) external view returns (bool constructive, uint256 pattern) {
        QuantumInterference memory interference = quantumInterferences[interferenceId];
        return (interference.constructive, interference.interferencePattern);
    }
    
    // ==================== QUANTUM TUNNELING ====================
    
    function attemptQuantumTunneling(
        uint256 barrierHeight,
        uint256 particleEnergy
    ) external returns (bytes32) {
        bytes32 tunnelingId = keccak256(abi.encodePacked(
            barrierHeight,
            particleEnergy,
            block.timestamp,
            totalTunneling
        ));
        
        // Calculate tunneling probability
        uint256 energyRatio = (particleEnergy * 100) / barrierHeight;
        uint256 tunnelingProbability = energyRatio > 100 ? 100 : energyRatio;
        
        // Quantum tunneling occurs with probability
        bool tunneled = (uint256(keccak256(abi.encodePacked(tunnelingId))) % 100) < tunnelingProbability;
        uint256 efficiency = tunneled ? 95 + (block.timestamp % 5) : 0; // 95-99% if successful
        
        QuantumTunneling memory tunneling = QuantumTunneling({
            barrierHeight: barrierHeight,
            particleEnergy: particleEnergy,
            tunnelingProbability: tunnelingProbability,
            tunneled: tunneled,
            efficiency: efficiency
        });
        
        quantumTunneling[tunnelingId] = tunneling;
        totalTunneling++;
        
        if (tunneled) {
            emit QuantumTunnelingOccurred(tunnelingId, efficiency);
        }
        
        return tunnelingId;
    }
    
    function getTunnelingResult(
        bytes32 tunnelingId
    ) external view returns (bool tunneled, uint256 efficiency) {
        QuantumTunneling memory tunneling = quantumTunneling[tunnelingId];
        return (tunneling.tunneled, tunneling.efficiency);
    }
    
    // ==================== QUANTUM SUPERPOSITION ====================
    
    function createQuantumSuperposition(
        bytes32[] calldata states,
        uint256[] calldata probabilities
    ) external returns (bytes32) {
        require(states.length == probabilities.length, "Array length mismatch");
        require(states.length > 0, "Empty states");
        
        bytes32 superpositionId = keccak256(abi.encodePacked(
            states,
            probabilities,
            block.timestamp,
            totalSuperpositions
        ));
        
        // Validate probabilities sum to 100
        uint256 totalProbability = 0;
        for (uint256 i = 0; i < probabilities.length; i++) {
            totalProbability += probabilities[i];
        }
        require(totalProbability == 100, "Probabilities must sum to 100");
        
        uint256 coherenceTime = 300 + (block.timestamp % 200); // 300-500 seconds
        
        QuantumSuperposition memory superposition = QuantumSuperposition({
            states: states,
            probabilities: probabilities,
            coherenceTime: coherenceTime,
            isCoherent: true,
            superpositionCount: states.length
        });
        
        quantumSuperpositions[superpositionId] = superposition;
        totalSuperpositions++;
        
        emit QuantumSuperpositionCreated(superpositionId, states.length);
        return superpositionId;
    }
    
    function collapseSuperposition(
        bytes32 superpositionId
    ) external returns (bytes32) {
        require(quantumSuperpositions[superpositionId].isCoherent, "Not coherent");
        
        QuantumSuperposition storage superposition = quantumSuperpositions[superpositionId];
        
        // Collapse to one state based on probabilities
        uint256 random = uint256(keccak256(abi.encodePacked(
            superpositionId,
            block.timestamp
        ))) % 100;
        
        uint256 cumulativeProbability = 0;
        uint256 selectedIndex = 0;
        
        for (uint256 i = 0; i < superposition.probabilities.length; i++) {
            cumulativeProbability += superposition.probabilities[i];
            if (random < cumulativeProbability) {
                selectedIndex = i;
                break;
            }
        }
        
        superposition.isCoherent = false;
        return superposition.states[selectedIndex];
    }
    
    function getSuperpositionState(
        bytes32 superpositionId
    ) external view returns (bytes32[] memory states, uint256[] memory probabilities, bool isCoherent) {
        QuantumSuperposition memory superposition = quantumSuperpositions[superpositionId];
        return (superposition.states, superposition.probabilities, superposition.isCoherent);
    }
    
    // ==================== INTEGRATED QUANTUM FEATURES ====================
    
    function quantumArbitrageWithEntanglement(
        bytes32 state1,
        bytes32 state2,
        uint256 arbitrageAmount
    ) external returns (bytes32 entanglementId, bool success) {
        // Create quantum entanglement
        entanglementId = this.createQuantumEntanglement(state1, state2);
        
        // Use entanglement for arbitrage decision
        (bytes32 measuredState, uint256 correlation) = this.measureEntangledState(entanglementId, true);
        
        // Higher correlation = higher success probability
        success = correlation > 50 && (uint256(measuredState) % 100) > (100 - correlation);
        
        return (entanglementId, success);
    }
    
    function quantumTunnelingTransaction(
        uint256 gasPrice,
        uint256 gasLimit
    ) external returns (bytes32 tunnelingId, bool success) {
        // Use quantum tunneling for energy-efficient transactions
        uint256 barrierHeight = gasPrice * gasLimit;
        uint256 particleEnergy = gasPrice * (gasLimit / 2); // Reduced energy
        
        tunnelingId = this.attemptQuantumTunneling(barrierHeight, particleEnergy);
        (bool tunneled, uint256 efficiency) = this.getTunnelingResult(tunnelingId);
        
        success = tunneled && efficiency > 90;
        
        return (tunnelingId, success);
    }
    
    function quantumSuperpositionArbitrage(
        bytes32[] calldata marketStates,
        uint256[] calldata stateProbabilities
    ) external returns (bytes32 superpositionId, bytes32 selectedState) {
        // Create quantum superposition of market states
        superpositionId = this.createQuantumSuperposition(marketStates, stateProbabilities);
        
        // Collapse to optimal state
        selectedState = this.collapseSuperposition(superpositionId);
        
        return (superpositionId, selectedState);
    }
    
    function getAdvancedQuantumStats() external view returns (
        uint256 entanglements,
        uint256 interferences,
        uint256 tunneling,
        uint256 superpositions,
        uint256 totalOperations
    ) {
        return (
            totalEntanglements,
            totalInterferences,
            totalTunneling,
            totalSuperpositions,
            totalEntanglements + totalInterferences + totalTunneling + totalSuperpositions
        );
    }
}
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