MLDSASafe: Implémentations ML-DSA de Haute Assurance, Logique Temps Constant et Vérification Formelle

MLDSASafe établit des architectures de signature de code résistantes au quantique et des pipelines de démarrage sécurisé basés sur NIST FIPS 204 ML-DSA, protégeant serveurs cloud, calculateurs automobiles et satellites contre les altérations de micrologiciel.

MLDSASafe System Architecture

Core cryptographic topology and protocol interaction of mldsasafe.com

Central System: Safe Boot Core - FIPS 204 Verifier

Cryptographic Nodes

  • ROM Verifier
  • UEFI Driver
  • Kernel Keyring
  • Sigstore PQC
  • TPM Quote

Architectural Layers & Protocols

  • Silicon Mask ROM & Immutable Boot Anchor (Hardcoded ML-DSA-65 Public Key Hashes in OTP eFuses): Verifying the Stage 1 bootloader before main core execution commences
  • UEFI Secure Boot & Kernel Signing (PK / KEK / DB Post-Quantum Signature Verification): Validating operating system kernels, device drivers, and hypervisors during system initialization
  • Container Image & Artifact Attestation (Sigstore / Cosign Post-Quantum Signing Pipelines): Cryptographically binding container digests, software bills of materials (SBOM), and git commit SHAs
  • Remote Platform Attestation & Measured Boot (TPM 2.0 Quote with Post-Quantum Attestation Keys (AK)): Proving hardware and software configuration integrity to remote zero-trust verifiers

Key Metrics: <8 ms (Boot Verification Latency) | FIPS 204 (Signature Standard) | Zero-Bypass (Secure Boot Enforcement) | NIST Level 3 (Security Classification)

Le firmware signé aujourd'hui doit rester inviolable face au quantique demain

If a code-signing key is compromised by quantum cryptanalysis, an adversary can forge bootloader updates, bypass hardware security checks, and permanently back-door physical infrastructure. MLDSASafe implements unbreakable lattice verification.

Core Engineering Areas

Technical Articles

Related Cluster Architecture Specifications