Harmonium Bio-C is a bio-integrated sensing material that gives structures and devices a form of material-level awareness. Sensing is built directly into the material itself, with no separate electronics required, letting it continuously monitor strain, pressure, hydration, chemical changes, and damage over time, while retaining a memory of past mechanical events. It’s well suited for smart bandages, prosthetic liners, implantable monitoring devices, soft robotic skins, and human-machine interfaces where real-time feedback and biocompatibility are critical.
Harmonium SetSilk is a gradient bio-composite engineered to begin soft and flexible, then transition into a tougher, mineralized structure once set. Inspired by natural tissue interfaces, it bridges soft and hard biological environments while minimizing stress at the junction — compliant where it meets tissue, hard and wear-resistant on the outside. Designed for tendon-to-bone scaffolds, implantable regenerative devices, smart biomedical patches, and soft robotic systems, it pairs toughness and crack resistance with biocompatibility and support for cell adhesion and bone growth.
A proprietary Ti-based advanced material engineered for resonant precision under explicit physical constraints. Part of the Axiom Zeta materials family. Compositional specifications are proprietary.
A proprietary advanced material engineered for conductive harmony — third member of the Harmonium · Aurelium · Cadentium family, built on resonant structural principles.
The Phoenix-C Orbital Collector applies phi-recursive geometry to solar energy harvesting, producing convergence signatures consistent with φ-attractor behavior.
A resonant coil architecture applying phi-recursive node spacing to orbital energy collection. Geometry and specifications are proprietary.
Deterministic embedded cognition — no cloud required. Executes full perception-to-action cycles entirely on-device on ARM Cortex-M7 hardware, within a bounded latency envelope. Real-time closed-loop control. Deployable in regulated environments. No external supervisor needed.
Adaptive intelligence that learns without retraining. Spiking neural processing for ultra-low-power continuous inference. Multi-sensor fusion across inertial, visual, proximity, and thermal streams. Safety governance embedded directly into the decision architecture — not added on top. Grounded in IFT with formally proven convergence properties.
The SPINN NeuroSeer architecture is grounded in Interplayed Field Theory (IFT) — a formally published six-paper framework. Fibonacci Causal Loop Theory (FCLT) proves that depth-2 necessity recursion converges to φ ≈ 1.618 as its unique stable attractor. IFT Papers 1–6: doi.org/10.5281/zenodo.19297099 · FCLT Series: independent.academia.edu/AbbyDavis74
Axiom Zeta Innovations exists to build AI that works where the cloud can’t reach — embedded, deterministic, and safe by design. We develop intelligent systems for the real world: edge environments, regulated industries, and mission-critical applications where failure is not an option.
Our team brings together expertise in embedded systems engineering, neuromorphic computing, physics-grounded AI architecture, and safety-critical design. We don’t bolt safety on afterward — we build it into the decision architecture from the ground up.
Every system we build is grounded in formal theory and tested against real-world constraints. From initial architecture through deployment, we prioritize deterministic behavior, minimal power footprint, and verifiable safety properties. We deliver systems that perform — and that you can prove will perform.