Cybersecurity
Zero-Trust Architecture, Cryptographic Verification & Memory Safety
Quantrix Cybersecurity is built on the tenet that external networks cannot be trusted. We design systems utilizing provably secure microkernels (seL4-inspired), Rust-based memory-safe drivers, and hardware security modules (HSMs). Every design package generated across our engineering pipelines includes an immutable SHA-256 cryptographic audit chain for end-to-end provenance.
Key Capabilities & Envelopes
Formally Verified Micro-Kernels
Mathematical proof of correctness ensuring zero buffer overflows, zero dangling pointers, and strict capability separation.
Immutable SHA-256 Audit Lineage
Every requirement, geometry vertex, FEA node, and solver tolerance is hashed into an auditable cryptographic proof package.
Air-Gapped Local-First Execution
Zero external network calls during CAD derivation, mesh generation, or structural solving. Strict on-premise containment.
Live Physics & Telemetry Model
Interact with real-time mathematical derivations and environmental envelopes specific to Cybersecurity.
86e22a609f4e2b810d7a4c9e88b31a0c4f826d11e5Core Subsystem Specifications
Cryptographic Attestation Module
Hardware-grounded platform integrity verifying firmware and software signatures before boot authorization.
seL4 Capability-Based Isolation
Microkernel IPC enforcing strict spatial and temporal isolation between network, solver, and actuator modules.
Data Diode Unidirectional Air-Gap
Physical optical data diodes that allow telemetry to exit secure compartments while physically preventing any return ingress.
Defense & Aerospace Standards Matrix
NIST SP 800-171
Controlled Unclassified Information
NIST SP 800-53
Security and Privacy Controls
FIPS 140-3
Cryptographic Module Validation
Common Criteria EAL 6+
Evaluation Assurance Level