Comprehensive guides and reference materials for CryptoGuardian
Welcome to the CryptoGuardian documentation. This guide will help you understand and implement the quantum-proof security features of the CryptoGuardian token.
Before you begin, ensure you have the following:
To get started with CryptoGuardian, clone the repository and install dependencies:
git clone https://github.com/cryptoguardian/quantum-token.git
cd quantum-token
npm installFor a quick start, you can use our template project:
npx create-quantum-token my-token
cd my-token
npm install
npx hardhat compileThis will create a new project with the basic CryptoGuardian structure and quantum security features already implemented.
CryptoGuardian is an ERC20-compatible token with advanced quantum-proof security features. It is designed to protect against both current and future quantum computing threats.
The CryptoGuardian token has the following economic parameters:
CryptoGuardian implements several layers of quantum-proof security features to protect against quantum computing threats.
The token uses lattice-based cryptography, which is considered resistant to quantum computing attacks. The implementation includes:
CryptoGuardian includes a system for dynamically adjusting security parameters based on the current quantum threat landscape:
// Update quantum security level via oracle
function updateQuantumSecurityLevel() external {
require(address(quantumOracle) != address(0), "Oracle not set");
// Get latest parameters from oracle
(uint256 newLevel, bytes memory extraData) = quantumOracle.getQuantumProofParameters();
// Verify the update is legitimate
require(newLevel > 0, "Invalid security level");
// Update the quantum proof level
uint256 oldLevel = quantumProofLevel;
quantumProofLevel = newLevel;
// Store additional data if provided
if (extraData.length > 0) {
quantumProofData = extraData;
}
// Update the threat assessment
quantumThreatAssessment = _calculateThreatLevel(newLevel, extraData);
// Record update time
lastQuantumLevelUpdate = block.timestamp;
// Adjust security fee if necessary
if (newLevel > oldLevel) {
_adjustSecurityFeeForThreat();
}
emit QuantumProofLevelUpdated(newLevel);
}Quantum-Resistant Self-Evolving Security (QRSES) is CryptoGuardian's revolutionary approach to blockchain security. It combines quantum-proof cryptography with artificial intelligence to create a token that autonomously evolves its security measures.
For detailed information on QRSES, see the QRSES Innovation page.
This section provides a step-by-step guide for deploying the CryptoGuardian token to various blockchain networks.
Before deploying to mainnet, it's recommended to test on a testnet:
// Configure network in hardhat.config.js
module.exports = {
networks: {
testnet: {
url: "https://data-seed-prebsc-1-s1.binance.org:8545/",
accounts: [process.env.PRIVATE_KEY],
chainId: 97,
},
},
};
// Deploy script
npx hardhat run scripts/deploy.js --network testnetOnce testing is complete, you can deploy to mainnet:
// Configure network in hardhat.config.js
module.exports = {
networks: {
mainnet: {
url: "https://bsc-dataseed.binance.org/",
accounts: [process.env.PRIVATE_KEY],
chainId: 56,
},
},
};
// Deploy script
npx hardhat run scripts/deploy.js --network mainnetAfter deployment, complete these important steps:
This section provides a reference for the main functions and interfaces of the CryptoGuardian token.
transfer(address recipient, uint256 amount) - Transfer tokens with quantum securitytransferFrom(address sender, address recipient, uint256 amount) - Transfer tokens on behalf of another addressapprove(address spender, uint256 amount) - Approve spending of tokensbalanceOf(address account) - Get token balance of an addressenhancedQuantumProofHash(bytes memory data) - Generate quantum-proof hashupdateQuantumSecurityLevel() - Update security parameters via oracleregisterQRSignature(bytes32 messageHash, bytes memory signature, uint256 algorithm) - Register quantum-proof signatureverifyQRSignature(address user, bytes memory message, bytes memory signature) - Verify quantum-proof signaturegetCurrentSecurityState() - Get current security stateupdateSecurityParameters() - Update security parameters via consensusverifyTransactionSecurity() - Verify transaction with current security parametersgenerateSecurityProof() - Generate security proof for transactionCryptoGuardian implements post-quantum cryptographic algorithms, specifically lattice-based cryptography, which is considered resistant to quantum computing attacks. Additionally, the QRSES system continuously evolves security measures in response to advances in quantum computing.
A 0.5% fee is applied to all transactions. This fee is used to fund ongoing security research and development, maintain the AI system, and provide rewards to security validators.
Yes, the contract owner can exclude specific addresses from the security fee using the excludeFromSecurity(address account, bool excluded) function.
While other tokens may implement basic quantum-proof algorithms, QRSES goes further by adding AI-driven evolution, temporal sharding, and cross-chain quantum entanglement. This creates a multi-layered security approach that continuously adapts to emerging threats.
Yes, CryptoGuardian is fully compatible with standard ERC20 wallets and exchanges. The quantum security features work behind the scenes without requiring special wallet support.
Validator participation will be opened after the mainnet launch. Validators will need to stake a minimum amount of GRDN tokens and run specialized validator software. Details will be announced on our official channels.
Follow our comprehensive implementation guide to enhance your token's security against quantum threats.
View Implementation Guide