MLDSASafe: Implementaciones ML-DSA de Alta Seguridad, Lógica en Tiempo Constante y Verificación Formal

MLDSASafe establece arquitecturas de firma de código seguras frente a la computación cuántica y cadenas de verificación de arranque seguro basadas en NIST FIPS 204 ML-DSA, protegiendo servidores en la nube, ECUs de vehículos y satélites contra firmware malicioso.

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)

El Firmware Firmado Hoy Debe Permanecer a Prueba de Manipulación Cuántica Mañana

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