

Creating the next generation of products before they exist. We design and engineer mission-critical technologies across space, aerospace, defense, cybersecurity, and AI — turning undefined physical and computational problems into operational reality.
Deterministic Shigley Derivation // Mach 4.2
Scroll down to scrub horizontally through all 6 operational vectors. Section 3 unlocks after Division 06.
Autonomous architectures for orbital, ground, and constellation operations with real-time perturbation compensation.
Guidance, navigation, and control algorithms operating at the thermodynamic and physical envelope of hypersonic flight.
High-reliability embedded avionics designed to withstand electronic warfare, kinetic disruption, and signal denial.
Formally proven micro-kernels and hardware security modules ensuring absolute partition isolation.
Physics-informed neural networks executing at sub-millisecond latency on edge avionics silicon.
End-to-end integration synthesizing microcode, physical dynamics, and ground telemetry into unified missions.
Deterministic engineering infrastructure for aerospace where physics equations derive geometry directly.
Deterministic engineering infrastructure for aerospace where physics equations derive geometry directly. One plain-English sentence becomes a STEP file, FEA report, and SHA-256 audited engineering package. No CAD. No hallucination. No cloud.
From plain-English requirement to verified solid CAD model in under 4 seconds with zero hallucinations.
"Design an aerospace L-bracket for 4000N axial load with 50mm moment arm in Al 6061-T6 with 2.5 FOS."
JSON Parameter Map: { load: 4000, arm: 50, material: 'Al-6061-T6', fos: 2.5 }
Deterministic Parser: Returns NULL on ambiguous syntax. Zero hallucination guarantee.
// Raw Input: Natural language constraints
const inputSpec = {
load_axial_N: 4000,
moment_arm_mm: 50,
material_spec: "AMS 4027 (Al 6061-T6)",
yield_strength_MPa: 276,
required_FOS: 2.5
};The non-negotiable principles guiding every architecture, prototype, and product system we build.
We compress complex aerospace development lifecycles by executing rapid physical and software prototypes rather than remaining trapped in bureaucratic review cycles.
Simulations provide mathematical intuition; real-world telemetry and boundary stress tests decide empirical truth. We validate at the envelope's edge.
In critical aerospace and defense systems, failure is intolerable. From micro-firmware to distributed ground layers, security and fault tolerance are foundational.
We intentionally target high-consequence, undefined problems where off-the-shelf commercial software and CAD fail to meet physical and computational demands.
Addressing deeptech, defense procurement, air-gapped security, and certification requirements.
Generative CAD plugins use probabilistic neural networks that hallucinate polygon meshes without physical constraints, resulting in non-manufacturable geometries. In contrast, Rigel is an analytical physics engine. It uses local LLM strictly for parsing natural-language constraints into formal parameter sets, and then executes deterministic closed-form mechanical engineering formulas (e.g. Shigley, Roark) to compute geometry directly. 100% reproducible, zero hallucinations.
Connect directly with Quantrix engineering for defense partnerships, aerospace R&D contracts, or technical inquiries.
Direct operational channel for defense programs, aerospace OEM integrations, academic research partnerships, and deeptech initiatives.