We build computing systems that react faster than any digital processor can clock — not by running faster software, but by eliminating software from the critical path entirely.
Your brain does not store memories as files or retrieve them from a database. It stores patterns — spatial, temporal, and sensory at once. And it recognizes what is familiar almost instantly, even from a partial signal, even years later.
Modern machines work in a fundamentally different way. They compute, classify, and query servers. It works — but it consumes enormous resources, depends on connectivity, and does not adapt to a specific person.
We are building a computing medium in which intelligence emerges from the physics of an analog field — much as it does in living systems. No central processor in the critical path. No cloud dependency. No retraining cycle.
Computation emerges from coupled resonant systems instead of sequential software execution.
Response occurs at physical signal propagation speed — no clocks, no instruction queues.
Field dynamics process information continuously without the overhead of digital instruction loops.
Resonant fields tolerate component failure without catastrophic collapse — inherently fault-tolerant.
The 256×256 LC oscillator array maps directly to standard semiconductor fab processes.
Memory and processing unified in the field — a fundamentally different computing paradigm.
Because decision-making occurs inside stable physical architectures rather than opaque software stacks, this technology opens the path toward the first generation of truly safe humanoid robots designed to work alongside humans.
Validated simulations demonstrate stable resonant fields across 65,536 resonators. DARPA DSO BAA submission in progress (HR001125S0013, June 2026). The architecture targets the control layer of autonomous systems — a segment with no current analog-native solution at scale.
| Milestone | Status | Notes |
|---|---|---|
| Architecture design (256×256 LC array) | Complete | Full specification documented |
| Field simulation (65K resonators) | Complete | Stable resonant patterns validated |
| DARPA DSO BAA submission | In progress | HR001125S0013 — deadline June 2026 |
| FPGA proof-of-concept (600 oscillators) | Planned | Seed funding milestone |
| ASIC tape-out | Planned | Post-seed / Series A |
We're building the control layer for the next generation of autonomous systems. Investors, defense programs, robotics companies — let's talk.