Quantum-Safe Cryptography Starts Here

Assess your cryptographic posture, adopt NIST-standardized PQC algorithms (ML-KEM, ML-DSA, SLH-DSA), and follow step-by-step migration guides — all powered by the Qudo Cryptographic Module.

1

Discover

Scan endpoints to assess cryptographic posture. Review PQC algorithm performance. Check CNSA 2.0 compliance.

Crypto Inventory Algorithm Performance CNSA 2.0
Assess your crypto →
2

Get Started

Download the Qudo Cryptographic Module for your platform, install it, and verify PQC is working.

Download Install Verify
Download & install →
3

Migrate

Study reference implementations for REST, gRPC, signing, PKI, IoT, blockchain, and more. Each shows what changes in your service.

13 Services Interactive APIs Migration Reference
Browse & migrate →
4

Docs

Troubleshooting, algorithm reference, Qudo module details, and enterprise support contacts.

Troubleshooting Algorithms Support
Read the docs →

Ready to migrate?

Schedule a guided walkthrough with our team to plan your quantum-safe transition.

Why Migrate to Quantum-Safe?

Quantum computers will break today's encryption. NIST has standardized the replacements. Here's what changes.

The Threat

Attackers are harvesting encrypted data today to decrypt it once quantum computers are available. This "harvest now, decrypt later" strategy puts long-lived secrets at immediate risk.

NIST Standards Implemented by Qudo

The Qudo Cryptographic Module implements all three NIST post-quantum standards, available as an OpenSSL provider.

FIPS 203

ML-KEM Qudo

Module-Lattice Key Encapsulation Mechanism

Establishes shared secrets between two parties over an insecure channel. Replaces ECDH and classical Diffie-Hellman.

ML-KEM-512 · ML-KEM-768 · ML-KEM-1024
TLS key exchange VPN tunnels Email encryption
FIPS 204

ML-DSA Qudo

Module-Lattice Digital Signature Algorithm

Signs data and verifies authenticity. Replaces RSA and ECDSA signatures across all use cases.

ML-DSA-44 · ML-DSA-65 · ML-DSA-87
Code signing JWT tokens Certificates Transactions
FIPS 205

SLH-DSA Qudo

Stateless Hash-Based Digital Signature Algorithm

Hash-based signatures with conservative security assumptions. Designed for long-term integrity where security must last decades.

SLH-DSA-SHA2-128s · 192s · 256s + SHAKE variants
Firmware signing Root certificates Archival documents

What Changes in Your Stack

Transport Every API call, every page load
Today ECDHE / X25519 Vulnerable to quantum key recovery
Quantum-Safe X25519MLKEM768 FIPS 203 · ML-KEM
Protects: HTTPS traffic, API calls, WebSocket connections, gRPC streams
Authentication Every login, every API token
Today HMAC-SHA256 / ES256 Quantum computers can forge signatures
Quantum-Safe ML-DSA-65 FIPS 204 · ML-DSA
Protects: JWT tokens, OAuth flows, session authentication, mTLS identity
Code & Data Signing Every release, every document
Today RSA / ECDSA Signatures can be forged retroactively
Quantum-Safe ML-DSA-44 / 65 / 87 FIPS 204 · ML-DSA
Protects: Software releases, firmware updates, contracts, audit trails, container images
Key Exchange Every encrypted channel
Today ECDH / Diffie-Hellman Shared secrets can be recovered
Quantum-Safe ML-KEM-768 FIPS 203 · ML-KEM
Protects: Email encryption, VPN tunnels, inter-service communication, IoT device pairing

What does NOT change

Application logic User experience Network protocols