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GOVERNMENT & DEFENSE • POST-QUANTUM SECURE

AI Security for Government Systems

Post-quantum cryptography at internet scale for government and defense. Every API call uses FHE encryption, ZK-STARK proofs, and Dilithium signatures. Zero classical cryptography. Independently benchmarked. Mission-ready today.

NIST FIPS 203/204
CNSA 2.0 Mapped
SOC 2 Type II
Per Authentication
Sustained Throughput
30yr
Evidentiary Validity
108
Patent Claims

National Security Risks of AI Data Exposure

Nation-state adversaries are capturing encrypted government data today, planning to decrypt it with quantum computers. Every RSA/ECC-encrypted session is already at risk. AI systems processing classified and sensitive data multiply the attack surface.

HNDL
Harvest Now, Decrypt Later
Foreign intelligence services are recording encrypted government traffic at scale. When cryptographically relevant quantum computers arrive (NSA estimates 2030–2035), every captured session becomes plaintext. If your classified data has a shelf life beyond 5 years, it is already compromised in the probabilistic sense.
AI x PQ
AI Multiplies the Attack Surface
Government AI systems ingest, process, and generate classified intelligence at unprecedented scale. Every model inference, every training pipeline, every embedding vector is a target. Classical encryption around AI workloads creates a false sense of security when the underlying cryptography has an expiration date.
2030
NIST Deprecation Deadline
NIST has set 2030 as the hard deadline for deprecating RSA and ECDSA in federal systems. After that date, no federal system may rely on classical asymmetric cryptography. The migration timeline for complex government IT infrastructure starts now — not when the deadline arrives.

The CNSA 2.0 Timeline Is Now

NSA's Commercial National Security Algorithm Suite 2.0 mandates migration to quantum-resistant algorithms. Deadlines range from 2025 to 2033. H33 is FIPS 203/204 compliant today — ML-KEM (Kyber) and ML-DSA (Dilithium) in every API call.

2025 — NOW
Software and Firmware Signing
CNSA 2.0 requires ML-DSA (Dilithium) for all software and firmware signing. Immediate compliance required. H33 uses Dilithium for every digital signature in the pipeline — no migration needed.
2026
Web Browsers and Servers (TLS/DTLS)
ML-KEM (Kyber) required for key establishment in TLS and DTLS. H33 uses Kyber hybrid key exchange for every API connection. Government systems using H33 meet this requirement by default.
2027–2029
Cloud Services and Custom Applications
All cloud infrastructure, custom applications, and operating systems must transition to CNSA 2.0 algorithms. Agencies running H33's self-hosted deployment are already compliant across the full application stack.
2030
NIST Classical Deprecation
RSA and ECDSA formally deprecated for federal systems. No classical asymmetric cryptography permitted in National Security Systems. H33 has zero classical cryptography in its hot path — migration risk is zero.
2033
Network Equipment and Infrastructure
All networking equipment (routers, VPN concentrators, key management infrastructure) must support CNSA 2.0. H33's API-first architecture means network-layer PQ is handled at the application boundary.
H33 is CNSA 2.0 compliant today across all pipeline operations.

Zero Classical Cryptography

H33's pipeline uses no RSA, no ECC, no classical algorithms in the hot path. Every operation — FHE encryption, ZK-STARK proof, digital signature, key exchange — is lattice-based or hash-based. Post-quantum from first byte to last.

Encryption
BFV / CKKS FHE
Lattice-based fully homomorphic encryption. Compute on ciphertext without decryption.
RLWE Hardness
Proofs
ZK-STARK
Zero-knowledge proofs via hash-based STARKs. No trusted setup. No elliptic curves.
SHA3-256
Signatures
ML-DSA (Dilithium)
NIST-standardized lattice-based digital signatures. Every attestation is post-quantum.
FIPS 204
Key Exchange
ML-KEM (Kyber)
NIST-standardized lattice-based key encapsulation. Every handshake is quantum-resistant.
FIPS 203

Purpose-Built for Government Missions

Five products. Each solves a specific government security problem. All post-quantum. All production-ready. Deployable in air-gapped, cloud, or hybrid environments.

QuantumVault

Crypto Migration + CNSA 2.0 Compliance

Automated discovery and migration of classical cryptographic assets to post-quantum algorithms. Inventory RSA/ECC keys across your infrastructure, generate migration plans, and execute phased rollover to ML-KEM and ML-DSA — with zero downtime and full audit trail.

DeviceProof

ZK-STARK Device Attestation

Cryptographic proof that a device is genuine, unmodified, and authorized — without revealing device internals. Zero-knowledge STARK proofs for endpoint attestation across government-issued devices, BYOD, and IoT sensors in classified environments.

H33-MPC

Threshold Signing for Multi-Party Authorization

Distributed key ceremonies with no single point of compromise. Lattice-based k-of-n threshold signing for multi-party authorization workflows — nuclear launch codes, classified document release, cross-agency approvals. Post-quantum at every step of the ceremony.

AI Compliance

Classified AI Governance Monitoring

Continuous monitoring of government AI systems for compliance with NIST AI RMF, EO 14110, and agency-specific AI governance frameworks. Cryptographically signed audit logs, model provenance tracking, and automated compliance reporting for classified AI deployments.

H33-Shield

Post-Quantum Threat Detection

Three native AI agents running in-process: harvest detection (0.69µs), side-channel analysis (1.14µs), and crypto health monitoring (0.52µs). Flags HNDL attack patterns, timing anomalies, and weak cryptographic configurations in real time across government networks.


30-Year Evidentiary Validity

Government records retention requirements span decades. Intelligence products, legal evidence, and audit trails must remain cryptographically valid long after quantum computers arrive. H33's HATS Tier 3 delivers exactly that.

30yr
Post-Quantum Signatures
Every record is signed with ML-DSA (Dilithium). Unlike RSA or ECDSA signatures, Dilithium signatures remain unforgeable even with quantum computers. Evidence signed today is valid in 2056.
On-Chain Merkle Anchoring
Merkle root hashes of evidence batches are anchored on-chain. Immutable, publicly verifiable, timestamped. The anchoring is hash-based (SHA3-256) — no quantum vulnerability.
Geo
Distributed Storage
Evidence replicated across geographically distributed data centers with independent jurisdictional boundaries. No single point of failure, no single point of seizure. COOP/COG compliant.

Performance at Scale

Production numbers from Graviton4 (c8g.metal-48xl, 192 vCPUs, 96 workers). 120-second sustained run. Independently benchmarked and reproducible. 108 patent claims pending.

Per Authentication
Full PQ pipeline
Auth / Second (Sustained)
120s, 96 workers
FHE Batch (32 Users)
BFV inner product
Dilithium Attestation
ML-DSA sign + verify
ZKP cached: 0.059µs  |  Variance: ±0.71%  |  ML agents: ~2.35µs  |  108 patent claims pending

Government Resources

Technical deep dives, compliance guides, and threat analysis for government security teams, CISOs, and acquisition officers.

Blog

Quantum Computing Threat Timeline

When will quantum computers break RSA? NSA, NIST, and academic estimates mapped to government migration deadlines.

Blog

Harvest Now, Decrypt Later Attacks

How nation-state adversaries are capturing encrypted government traffic today and what it means for data with multi-decade classification periods.

Blog

NIST FIPS 203/204 Explained

ML-KEM (Kyber) and ML-DSA (Dilithium) broken down for program managers and acquisition officers. What compliance requires and when.

Blog

Post-Quantum TLS Implementation

How to deploy quantum-resistant TLS in government systems. Kyber hybrid key exchange, certificate migration, and backward compatibility.

Blog

Crypto Agility: Quantum Ready

Building cryptographic agility into government systems so algorithm transitions happen without rip-and-replace migrations.

Blog

PQC Compliance Requirements 2026

The full regulatory landscape: CNSA 2.0 deadlines, OMB M-23-02, CISA guidance, and agency-specific mandates for post-quantum migration.

Reference

Security Overview

H33 security architecture, cryptographic parameter selection, threat model, and independent audit results.

Reference

Compliance Documentation

SOC 2 Type II, FIPS 203/204, HIPAA BAA, and ISO 27001 status. Audit reports available under NDA.

Reference

Technical White Paper

Full cryptographic specification: BFV parameters, NTT optimization stack, ZK-STARK circuit design, and Dilithium integration.

MISSION CRITICAL

Secure Critical Systems Without Compromise

Post-quantum security that meets the performance demands of government-scale operations. NIST FIPS 203/204. CNSA 2.0. Zero classical cryptography. 30-year evidence validity. Request a classified briefing or start with a security assessment.

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