Quantum-Safe Cryptography
Our post-quantum encryption protects digital identities using advanced lattice-based and hash-based algorithms that are resistant to quantum computing threats.
The Quantum Threat
Quantum computers pose an unprecedented threat to current cryptographic systems. When sufficiently powerful quantum computers become available, they will be able to break most of the public-key cryptography in use today, including RSA and ECC.
This means that sensitive data protected by these algorithms will become vulnerable, potentially exposing financial transactions, personal information, and critical infrastructure to attacks.
Vulnerable to Quantum Attacks:
- •RSA Encryption: Vulnerable to Shor's algorithm
- •Elliptic Curve Cryptography (ECC): Vulnerable to Shor's algorithm
- •Diffie-Hellman: Vulnerable to quantum attacks
- •DSA: Vulnerable to quantum attacks
Our Quantum-Safe Solution
Rivic's quantum-safe cryptography platform implements post-quantum algorithms that are resistant to attacks from both classical and quantum computers, ensuring long-term security for your sensitive data and digital identities.
Lattice-Based Cryptography
Our primary quantum-resistant approach uses mathematical lattices to create encryption that even quantum computers cannot break.
- •Ring-LWE implementation
- •Module-LWE for enhanced security
- •NTRU-based encryption options
Hash-Based Signatures
Secure digital signatures that rely only on the security of cryptographic hash functions, making them resistant to quantum attacks.
- •SPHINCS+ framework implementation
- •Stateless signature scheme
- •Merkle tree-based verification
Quantum-Safe Key Exchange
Secure methods for exchanging cryptographic keys that are resistant to both classical and quantum computing attacks.
- •NewHope protocol implementation
- •CRYSTALS-Kyber integration
- •Hybrid classical/quantum-safe options
NIST Standardization
Our quantum-safe cryptography implementations follow the National Institute of Standards and Technology (NIST) Post-Quantum Cryptography standardization process, ensuring compliance with emerging global standards.
We continuously update our algorithms and implementations as the standardization process evolves, ensuring that your security remains at the cutting edge of post-quantum cryptography.
NIST PQC Round 3 Finalists Implemented:
- ✓CRYSTALS-Kyber
Public-key encryption/KEMs
- ✓CRYSTALS-Dilithium
Digital signatures
- ✓FALCON
Digital signatures
- ✓SPHINCS+
Digital signatures
Technical Specifications
| Algorithm Type | Implementation | Key Size | Security Level | Performance |
|---|---|---|---|---|
| Lattice-Based Encryption | CRYSTALS-Kyber | 1024 bits | Level 5 (AES-256 equivalent) | High |
| Digital Signatures | CRYSTALS-Dilithium | 2048 bits | Level 3 (AES-192 equivalent) | Medium-High |
| Hash-Based Signatures | SPHINCS+ | Variable | Level 5 (AES-256 equivalent) | Medium |
| Key Exchange | NewHope | 1024 bits | Level 5 (AES-256 equivalent) | High |
Ready to Secure Your Future?
Don't wait until quantum computers break current encryption. Implement quantum-safe cryptography today to ensure your data remains secure in the quantum era.
