Identity access management that is quantum-resistant from day one. FHE-encrypted biometrics, Dilithium-signed sessions, ZK-STARK proof of identity -- without exposing credentials. Ever.
RSA and ECC underpin every identity access management system deployed today. Session tokens are RSA-signed. SAML assertions rely on RSA or ECC signatures. OAuth flows depend on TLS with classical key exchange. Certificate chains use RSA public keys. Active Directory trusts Kerberos tickets signed with symmetric keys derived from classical protocols.
Quantum computers running Shor's algorithm break all of it. RSA-2048 falls to a sufficiently large quantum computer in hours. ECC-256 is even more vulnerable -- it requires fewer logical qubits to break than RSA. Every session token, every SAML assertion, every OAuth access token, every certificate chain that uses classical cryptography becomes forgeable.
IAM is the highest-value target because it controls access to everything else. Compromise IAM and you compromise every system it protects. You do not need to attack individual services when you can forge the identity tokens that grant access to all of them. A single quantum break of your IAM layer is a full-scope breach.
Nation-states are capturing IAM traffic today. Session tokens, authentication flows, credential exchanges, SAML assertions, OAuth token grants -- all of this network traffic is being archived by adversaries with the patience and storage to wait for quantum computers.
This is not a theoretical concern. The NSA and CISA have publicly warned about harvest-now-decrypt-later attacks. Intelligence agencies with petabytes of storage capacity intercept and archive encrypted sessions routinely. The data does not expire. A session token captured today will be just as decryptable in ten years when quantum computers reach sufficient scale.
If your IAM uses RSA or ECC, your users' identities are already at risk. Every authentication event, every password change, every MFA challenge, every single sign-on flow that traversed a network is potentially captured and waiting for decryption. The breach has already happened -- you just cannot see it yet.
Every authentication in H33 uses ML-DSA (Dilithium, FIPS 204) for digital signatures and ML-KEM (Kyber, FIPS 203) for key exchange. These are NIST-standardized post-quantum algorithms that resist both classical computers and quantum computers. Session tokens are Dilithium-signed -- quantum computers cannot forge them.
Biometric matching happens inside fully homomorphic encryption. Biometric templates are encrypted at enrollment using BFV lattice-based FHE. They are never decrypted. The matching algorithm computes an inner product on ciphertext and returns an encrypted match score. The server performs the authentication without ever seeing the biometric template. A breach of the authentication server exposes ciphertext indistinguishable from random noise.
Key exchange uses ML-KEM (Kyber) to establish session keys. Even if a quantum adversary captures the key exchange, they cannot derive the session key. Combined with Dilithium-signed session tokens, every component of the authentication flow is quantum-resistant. There is no classical cryptography in the critical path.
Every authentication operation is attested with a ZK-STARK proof that the server executed the protocol correctly without accessing plaintext. The proof is publicly verifiable. You do not need to trust the server -- you can verify it mathematically.
Traditional IAM encrypts in transit (TLS) but processes credentials in plaintext. H33 never decrypts credentials -- authentication happens on ciphertext via FHE.
| Capability | Okta / Auth0 / Azure AD | H33 |
|---|---|---|
| Credential processing | Plaintext in memory | FHE -- never decrypted |
| Session token signatures | RSA / ECC (quantum-vulnerable) | Dilithium (FIPS 204) |
| Key exchange | ECDH (quantum-vulnerable) | ML-KEM / Kyber (FIPS 203) |
| Biometric storage | Encrypted at rest, decrypted to match | FHE -- matching on ciphertext |
| Harvest-now-decrypt-later protection | No | All traffic quantum-resistant |
| Processing verification | Trust the server | ZK-STARK proof per operation |
| Audit trail integrity | Database records | Dilithium-signed, 30-year retention |
Post-quantum identity modules, each backed by FHE and NIST-standardized cryptography.
Encrypted biometric matching. Templates are encrypted at enrollment and never decrypted. Inner-product matching runs entirely on ciphertext. 32 users verified per batch in 1.2ms. Prevents biometric data breaches by mathematical design.
Learn morePost-quantum key management. Generate, distribute, and rotate keys using ML-KEM (Kyber) for encapsulation and ML-DSA (Dilithium) for signing. Replaces RSA and ECC key infrastructure with quantum-resistant alternatives.
Learn moreZero-knowledge proof of identity without passwords. Users prove who they are without transmitting a credential. The server verifies the proof without learning the secret. Eliminates credential theft, phishing, and password database breaches.
Learn moreCryptographic device attestation. Each device generates a Dilithium keypair bound to its hardware identity. Session requests include a signed device attestation that proves the request originates from a registered device. No spoofing possible.
Learn moreFHE, zero-knowledge proofs, and Dilithium signatures execute in a single API call. No GPU required. ARM CPU only.
Replace classical IAM with post-quantum cryptography. FHE-encrypted biometrics, Dilithium-signed sessions, ZK-STARK identity proofs. Deploy in hours, not months.