Never trust, always prove. Every operation verified with ZK-STARK proofs, every signature uses Dilithium, every data access happens on encrypted data via FHE. The server never sees your data.
Zero trust says "never trust, always verify." Post-quantum says "assume quantum computers exist." Most security architectures address one of these threats. H33 addresses both simultaneously.
Every operation in H33 is verified with ZK-STARK proofs that the computation was performed correctly. Every signature uses Dilithium (ML-DSA, FIPS 204) -- quantum computers cannot forge it. Every data access happens on encrypted data via fully homomorphic encryption. The server processes your data without ever decrypting it.
You do not trust the server because the server never sees your data. You do not trust the network because all traffic is encrypted with ML-KEM (Kyber, FIPS 203). You do not trust the audit log because every entry is Dilithium-signed and independently verifiable. Trust is replaced with mathematical proof at every layer.
Each pillar eliminates a class of trust assumptions using NIST-standardized post-quantum cryptography.
All data is encrypted using ML-KEM (Kyber, FIPS 203) key exchange before it leaves the client. Even if an adversary captures every packet -- today or in ten years -- the data remains encrypted. Quantum computers cannot derive the session keys. There is no plaintext on the wire, ever.
ML-KEM / Kyber (FIPS 203)FHE processes data without decryption. The server receives ciphertext, performs computation on ciphertext, and returns ciphertext. It never holds a decryption key. A full compromise of the server exposes nothing -- the ciphertext is indistinguishable from random noise without the client's private key.
BFV Fully Homomorphic EncryptionEvery audit event is signed with Dilithium (ML-DSA, FIPS 204) digital signatures. The audit trail is tamper-evident for 30 years. You can independently verify that no record was altered, deleted, or back-dated. The integrity guarantee survives the arrival of quantum computers.
ML-DSA / Dilithium (FIPS 204)Every API call passes through four cryptographic verification stages. No stage trusts any other.
The caller proves identity with a Dilithium signature. No session token can be forged by a quantum computer. The signature is verified before any data processing begins.
Dilithium SignAll input data is encrypted client-side using FHE before transmission. The server receives only ciphertext. The decryption key never leaves the client.
FHE EncryptThe server computes on ciphertext and generates a ZK-STARK proof that the computation was correct. The proof is publicly verifiable without revealing any data.
ZK-STARK ProofThe encrypted result and its proof are Dilithium-signed by the server. The client verifies the signature, verifies the proof, then decrypts locally.
Dilithium AttestCryptographic device attestation using Dilithium keypairs bound to hardware identity. Every request includes a signed attestation proving the device is registered and uncompromised. No token replay, no device spoofing, no session hijacking.
Learn moreEncrypted API gateway that processes requests on ciphertext. Route, authorize, rate-limit, and transform API calls without ever decrypting the payload. The gateway is zero-trust by architecture -- it cannot read the data it processes.
Learn moreThreshold authorization using multi-party computation. No single party holds enough information to authorize an action. Combine FHE-encrypted shares from multiple parties to reach consensus without any party seeing another's input.
Learn moreContinuous compliance monitoring with cryptographic evidence. Every compliance check generates a ZK-STARK proof. Deviations trigger alerts within seconds. Audit evidence is Dilithium-signed and tamper-evident for 30 years.
Learn moreReplace trust assumptions with mathematical proofs. FHE-encrypted processing, ZK-STARK verification, Dilithium-signed audit trails. Zero trust that survives quantum computers.