Post-Quantum Cryptography

Quantum Threat
Defense Grid

Full implementation of all four NIST-approved post-quantum cryptography standards. Future-proof your systems before quantum computers break classical crypto.

๐Ÿ›ก๏ธ
4 of 4
NIST Standards
Full implementation
256-bit
Security Level
Quantum-resistant
2030+
Threat Horizon
Cryptographically relevant
100%
Coverage
All systems compliant

NIST Standards

Aumtrix implements every NIST-approved post-quantum cryptography algorithm in production

FIPS 203

NIST-standardized PQC KEM

Module-Lattice Key Encapsulation

The primary key exchange mechanism for the post-quantum era. Replaces RSA and Diffie-Hellman with lattice-based cryptography. 256-bit quantum security level. Used for all session key establishment.

โœ“ DEPLOYED
FIPS 204

NIST-standardized PQC signatures

Module-Lattice Digital Signature

Digital signatures for authentication and non-repudiation. Replaces ECDSA. Smaller signatures than alternatives, fast verification, NIST recommended for general-purpose use.

โœ“ DEPLOYED
FIPS 205

NIST-standardized hash-based signatures

Stateless Hash-Based Signature

Backup signature scheme based purely on hash functions. Provides quantum-safe fallback with no reliance on lattice problem assumptions. Recommended for high-assurance applications.

โœ“ DEPLOYED
AES-256-GCM

Symmetric Cipher

Authenticated Encryption

NIST-approved symmetric encryption. Provides confidentiality and integrity for bulk data. Quantum-resistant via Grover's algorithm doubling key requirements.

โœ“ DEPLOYED
SHA-256/SHA-3

Hash Functions

Cryptographic Hashing

Quantum-resistant hash functions used throughout the audit chain and digital signatures. Each blockchain block anchored with SHA-256 chained hashes.

โœ“ DEPLOYED
Hybrid Mode

Classical + PQC

Defense in Depth

Hybrid cryptographic mode combining classical (ECDSA) and post-quantum (NIST-standardized PQC signatures) signatures. Backward compatible while quantum-secure.

โœ“ DEPLOYED

vs Industry Standard

Most organizations are still using cryptography that quantum computers will break

Capability
Aumtrix
AWS/Azure
Banks
Healthcare
PQC Standards
All 4
Partial
None
None
Quantum-Safe Signatures
NIST-standardized PQC signatures
RSA/ECDSA
RSA-2048
RSA-2048
Key Exchange
NIST-standardized PQC KEM
ECDH
ECDH
ECDH
Production Ready
โœ“ Live
Beta
Planning
Planning
Quantum Security Level
256-bit
128-bit
~80-bit*
~80-bit*

*Effective security against quantum attacks

Quantum Threats

Why post-quantum cryptography is critical for any organization handling sensitive data

๐Ÿ”“ Shor's Algorithm

Breaks RSA, ECDSA, and Diffie-Hellman in polynomial time. A sufficiently large quantum computer can crack today's encryption in hours.

๐Ÿ” Grover's Algorithm

Provides quadratic speedup for symmetric key search. Effectively halves the security level of AES-128 to 64-bit. Requires AES-256 for true quantum resistance.

๐Ÿ“ฅ Harvest Now, Decrypt Later

Adversaries are already collecting encrypted data today to decrypt once quantum computers arrive. Sensitive long-lifetime data is already at risk.

โฐ Y2Q Timeline

Cryptographically Relevant Quantum Computers expected 2030-2035. Migration to PQC takes 5-10 years for large organizations. Start now.

๐Ÿ“œ Regulatory Pressure

NIST mandate, NSA CNSA 2.0, EU NIS2, and US Executive Order 14028 all require PQC migration timelines. Compliance is becoming mandatory.

๐Ÿ›๏ธ Crypto Agility

Aumtrix architecture supports rapid algorithm replacement. As NIST updates standards, our systems adapt without downtime or rebuilds.

Get PQC Compliant

Enterprise PQC implementation, compliance audits, and migration consulting

Contact Aumtrix โ†’
NVIDIA Inception