DroneTPM: Racines de Confiance pour Contrôleurs de Vol, Démarrage PQC et Télémétrie Sécurisée

DroneTPM conçoit des modules de plateforme sécurisée (TPM 2.0) matériels légers et inviolables, ainsi que des éléments sécurisés pour drones autonomes, empêchant le détournement de commande, le leurre GPS et le largage de charge non autorisé.

DroneTPM System Architecture

Core cryptographic topology and protocol interaction of dronetpm.com

Central System: Drone TPM Core - Hardware Root of Trust

Cryptographic Nodes

  • Flight Sec Boot
  • C2 Anti-Hijack
  • Remote ID Sign
  • Swarm Mesh PQC
  • Tamper Sensor

Architectural Layers & Protocols

  • Hardware Root of Trust & Platform Integrity (Dedicated Cryptographic Secure Element with Non-Volatile Monotonic Counters): Measuring platform boot state and verifying flight controller bootloader signatures
  • Command & Control (C2) Anti-Hijack Authentication (Ultra-Low Latency Symmetric & Lattice Key Verification): Verifying ground control station commands to ensure zero unauthorized flight overrides
  • Direct & Broadcast Remote ID (ASTM F3411) (Bluetooth 5.0 Long Range & Wi-Fi Beacon Cryptographic Broadcasting): Broadcasting cryptographically signed drone location, altitude, and operator identity
  • Autonomous Swarm Mesh & Collision Avoidance (Decentralized Peer-to-Peer Cryptographic Ad-Hoc Routing): Authenticating drone-to-drone proximity alerts and trajectory coordination messages

Key Metrics: TPM 2.0 (TCG Specification Profile) | <30 ms (C2 Command Auth Latency) | ASTM F3411 (Remote ID Standard Compliance) | Zero-Hijack (Flight Trajectory Integrity)

Protéger les drones autonomes contre les cybermenaces aériennes

Commercial logistics drones and defense swarms rely on remote teleoperation and autonomous edge navigation. Without a cryptographic hardware root of trust, adversaries can compromise firmware over Wi-Fi/cellular and hijack flight trajectories in mid-air.

Core Engineering Areas

Technical Articles

Related Cluster Architecture Specifications