import hre from "hardhat"; async function main() { console.log("======================================================================"); console.log(" CipherTrust: Autonomous Agent Flight & Attack Simulation Script "); console.log("======================================================================\n"); const [admin, operator, oracle1, oracle2, stranger] = await hre.ethers.getSigners(); const ctAddress = "0x0000000000000000000000000000000000000000"; // Mock deploy or real depending on hardhat network console.log("[1/6] Deploying CipherTrust Protocol Contract Suite..."); const ReputationBadge = await hre.ethers.getContractFactory("ReputationBadge"); const reputationBadge = await ReputationBadge.connect(admin).deploy(); await reputationBadge.waitForDeployment(); console.log(` -> ReputationBadge SB-NFT deployed to: ${await reputationBadge.getAddress()}`); const InsurancePool = await hre.ethers.getContractFactory("InsurancePool"); const insurancePool = await InsurancePool.connect(admin).deploy(); await insurancePool.waitForDeployment(); console.log(` -> InsurancePool deployed to: ${await insurancePool.getAddress()}`); const CipherTrust = await hre.ethers.getContractFactory("CipherTrust"); const cipherTrust = await CipherTrust.connect(admin).deploy(); await cipherTrust.waitForDeployment(); console.log(` -> CipherTrust Core deployed to: ${await cipherTrust.getAddress()}`); // Linked contracts await (await reputationBadge.connect(admin).setCipherTrust(await cipherTrust.getAddress())).wait(); await (await insurancePool.connect(admin).setCipherTrust(await cipherTrust.getAddress())).wait(); await (await cipherTrust.connect(admin).setReputationBadge(await reputationBadge.getAddress())).wait(); await (await cipherTrust.connect(admin).setInsurancePool(await insurancePool.getAddress())).wait(); // Authorize Oracles await (await cipherTrust.connect(admin).authorizeOracle(oracle1.address)).wait(); await (await cipherTrust.connect(admin).authorizeOracle(oracle2.address)).wait(); await (await cipherTrust.connect(admin).setQuorumThreshold(2)).wait(); console.log(" -> Oracles authorized. Quorum threshold set to 2.\n"); console.log("[2/6] Initializing Underwriting Capital (InsurancePool Staking)..."); // Stranger stakes 10 ETH into the InsurancePool await (await insurancePool.connect(stranger).stake({ value: hre.ethers.parseEther("10") })).wait(); console.log(` -> Stranger staked 10 ETH. Insurance Pool Assets: ${hre.ethers.formatEther(await insurancePool.totalAssets())} ETH\n`); console.log("[3/6] Registering Autonomous Delivery Drone & Requesting Credit Delegation..."); // Register drone agent #0 await (await cipherTrust.connect(admin).registerAgent(operator.address, 0)).wait(); console.log(" -> Delivery Drone Agent #0 registered."); let agent = await cipherTrust.getAgent(0); console.log(` -> Initial Uncertainty Variance (σ²): ${agent.trustScoreVar}`); let reqBond = await hre.fhevm.debugger.decryptEuint(5, await cipherTrust.getEncryptedRequiredBond(0)); console.log(` -> Initial Required Collateral Bond: ${hre.ethers.formatEther(reqBond)} ETH`); // Operator borrows bond from InsurancePool (Credit Delegation) await (await cipherTrust.connect(operator).requestCreditDelegation(0, hre.ethers.parseEther("5"))).wait(); console.log(` -> Borrowed 5 ETH from InsurancePool. Delegated Bond staked: ${hre.ethers.formatEther(await cipherTrust.getDelegatedBond(0))} ETH`); let sufficient = await hre.fhevm.debugger.decryptEbool(await cipherTrust.getEncryptedBondSufficiency(0)); console.log(` -> Collateral Sufficiency Status under FHE: ${sufficient ? "SUFFICIENT (Ready for Operations)" : "INSUFFICIENT"}\n`); console.log("[4/6] Executing Flight Telemetry Round 1 (Normal Operations)..."); // Redundant sensor readings: Sensor A = 9, Sensor B = 9, Uptime = 9, Latency = 9, Error = 0 const scoreVal = 9; const errVal = 0; const targetAddress = await cipherTrust.getAddress(); // Oracle 1 attestation const input1 = hre.fhevm.createEncryptedInput(targetAddress, oracle1.address); input1.add64(scoreVal); // compA input1.add64(scoreVal); // compB input1.add64(scoreVal); // uptime input1.add64(scoreVal); // latency input1.add64(errVal); // error const encrypted1 = await input1.encrypt(); await ( await cipherTrust.connect(oracle1).submitTelemetry( 0, encrypted1.handles[0], encrypted1.handles[1], encrypted1.handles[2], encrypted1.handles[3], encrypted1.handles[4], encrypted1.inputProof ) ).wait(); // Oracle 2 attestation const input2 = hre.fhevm.createEncryptedInput(targetAddress, oracle2.address); input2.add64(scoreVal); input2.add64(scoreVal); input2.add64(scoreVal); input2.add64(scoreVal); input2.add64(errVal); const encrypted2 = await input2.encrypt(); await ( await cipherTrust.connect(oracle2).submitTelemetry( 0, encrypted2.handles[0], encrypted2.handles[1], encrypted2.handles[2], encrypted2.handles[3], encrypted2.handles[4], encrypted2.inputProof ) ).wait(); // Fast forward block time to simulate operations await hre.ethers.provider.send("evm_increaseTime", [172800]); // 2 days await hre.ethers.provider.send("evm_mine", []); agent = await cipherTrust.getAgent(0); let score = await hre.fhevm.debugger.decryptEuint(5, await cipherTrust.getEncryptedTrustScore(0)); let bond = await hre.fhevm.debugger.decryptEuint(5, await cipherTrust.getEncryptedRequiredBond(0)); let interest = await cipherTrust.getInterestAccumulated(0); console.log(` -> Telemetry Round processed. Bayesian Trust Score: ${score}/1000`); console.log(` -> Uncertainty Variance (σ²) decayed to: ${agent.trustScoreVar}`); console.log(` -> Required Bond reduced to: ${hre.ethers.formatEther(bond)} ETH`); console.log(` -> Accumulated Interest accrued to Pool: ${hre.ethers.formatEther(interest)} ETH\n`); console.log("[5/6] Simulating GPS Spoofing Attack (Sensor Outlier Filtration)..."); // Sensors disagree: Sensor A reports 9 (normal), Sensor B reports 3 (spoofed location drift) const inputAttack1 = hre.fhevm.createEncryptedInput(targetAddress, oracle1.address); inputAttack1.add64(9); // compA (healthy) inputAttack1.add64(3); // compB (spoofed drift > 2) inputAttack1.add64(9); // uptime inputAttack1.add64(9); // latency inputAttack1.add64(0); // error const encryptedAttack1 = await inputAttack1.encrypt(); await ( await cipherTrust.connect(oracle1).submitTelemetry( 0, encryptedAttack1.handles[0], encryptedAttack1.handles[1], encryptedAttack1.handles[2], encryptedAttack1.handles[3], encryptedAttack1.handles[4], encryptedAttack1.inputProof ) ).wait(); const inputAttack2 = hre.fhevm.createEncryptedInput(targetAddress, oracle2.address); inputAttack2.add64(9); inputAttack2.add64(3); inputAttack2.add64(9); inputAttack2.add64(9); inputAttack2.add64(0); const encryptedAttack2 = await inputAttack2.encrypt(); await ( await cipherTrust.connect(oracle2).submitTelemetry( 0, encryptedAttack2.handles[0], encryptedAttack2.handles[1], encryptedAttack2.handles[2], encryptedAttack2.handles[3], encryptedAttack2.handles[4], encryptedAttack2.inputProof ) ).wait(); // Await decryption oracle to run FHE checks await hre.fhevm.awaitDecryptionOracle(); score = await hre.fhevm.debugger.decryptEuint(5, await cipherTrust.getEncryptedTrustScore(0)); console.log(" -> [SUCCESS] Sensor fusion drift check triggered under FHE."); console.log(" -> [SUCCESS] Spoofed Sensor B discarded. Anomaly penalty applied."); console.log(` -> Penalized Bayesian Trust Score: ${score}/1000\n`); console.log("[6/6] Simulating Catastrophic Malfunction (FHE Auto-Liquidation)..."); // Multiple rounds of failure/errors to push trust score below 300 const inputFail1 = hre.fhevm.createEncryptedInput(targetAddress, oracle1.address); inputFail1.add64(1); inputFail1.add64(1); inputFail1.add64(1); inputFail1.add64(1); inputFail1.add64(10); // extreme error rate const encryptedFail1 = await inputFail1.encrypt(); await ( await cipherTrust.connect(oracle1).submitTelemetry( 0, encryptedFail1.handles[0], encryptedFail1.handles[1], encryptedFail1.handles[2], encryptedFail1.handles[3], encryptedFail1.handles[4], encryptedFail1.inputProof ) ).wait(); const inputFail2 = hre.fhevm.createEncryptedInput(targetAddress, oracle2.address); inputFail2.add64(1); inputFail2.add64(1); inputFail2.add64(1); inputFail2.add64(1); inputFail2.add64(10); const encryptedFail2 = await inputFail2.encrypt(); await ( await cipherTrust.connect(oracle2).submitTelemetry( 0, encryptedFail2.handles[0], encryptedFail2.handles[1], encryptedFail2.handles[2], encryptedFail2.handles[3], encryptedFail2.handles[4], encryptedFail2.inputProof ) ).wait(); // Await decryption oracle to finalize liquidation check await hre.fhevm.awaitDecryptionOracle(); agent = await cipherTrust.getAgent(0); console.log(" -> [SUCCESS] FHE trust score fell below liquidation threshold (300)."); console.log(` -> Agent Active Status: ${agent.active ? "ACTIVE" : "INACTIVE / DEACTIVATED"}`); console.log(` -> Slashed Bond remaining: ${hre.ethers.formatEther(agent.postedBond)} ETH`); console.log(` -> Slashed Bond recovered to InsurancePool: ${hre.ethers.formatEther(await insurancePool.totalAssets())} ETH\n`); console.log("======================================================================"); console.log(" Simulation Completed Successfully! "); console.log("======================================================================"); } main().catch((error) => { console.error(error); process.exitCode = 1; });