Protect your organization against quantum threats with post-quantum cryptography, quantum key distribution, and information-theoretic security. Stay ahead of the quantum computing revolution.
NIST-approved post-quantum algorithms including Kyber, Dilithium, and SPHINCS+ for quantum-resistant encryption and signatures.
Information-theoretically secure key distribution using quantum mechanics principles with eavesdropping detection.
AI-powered quantum threat detection with real-time monitoring and automated incident response for enterprise security.
import { QuantumSecurityLayer, QuantumKeyDistribution } from '@q-intercept/sdk';
// Initialize quantum security layer
const security = new QuantumSecurityLayer({
protocol: 'bb84', // Bennett-Brassard 1984 protocol
keyLength: 256,
errorThreshold: 0.11, // QBER threshold for security
privacyAmplification: true
});
// Set up quantum key distribution
const qkd = new QuantumKeyDistribution({
alice: { endpoint: 'https://alice.quantum.local' },
bob: { endpoint: 'https://bob.quantum.local' },
channel: {
type: 'fiber_optic',
distance: '100km',
attenuationRate: 0.2 // dB/km
}
});
// Generate quantum-safe encryption keys
const keyPair = await security.generateQuantumSafeKeys({
algorithm: 'kyber_768', // Post-quantum key encapsulation
strength: 'military_grade'
});
// Secure data transmission
const encryptedData = await security.encrypt(sensitiveData, {
key: keyPair.publicKey,
algorithm: 'aes_256_gcm',
quantumSafe: true
});
console.log('Data encrypted with quantum-safe protocols');Small-scale quantum computers pose limited threat to current encryption. Organizations should begin migration planning.
Medium-scale quantum computers capable of breaking some RSA keys. Post-quantum cryptography becomes critical.
Large-scale quantum computers break all current public-key cryptography. Only quantum-safe systems remain secure.