NuMorph AI is a San Jose–based software company that develops ERN-AI (Evolutionary, Reconfigurable, Neuromorphic AI), a perception-native software layer modeled after the visual neurology of honeybees. ERN-AI enables event-driven vision on existing digital CMOS cameras, reducing compute load by up to 500× and cutting bandwidth and storage requirements accordingly — without replacing a single camera.
Led by Dr. Deepak Srivastava, former Senior Scientist and Group Lead at NASA Ames Research Center and recipient of the Feynman Prize in Nanotechnology (Theory).
ERN-AI runs as a software layer on top of the digital CMOS hardware already deployed in factories, warehouses, and robotic platforms. No new sensors, no new silicon, no infrastructure migration.
By extracting and processing only meaningful events instead of every frame, ERN-AI drastically reduces bandwidth consumption, GPU inference cost, and storage volume across large camera fleets.
The architecture is modular. AI-Lego-Blocks can be composed into arrays sized to the deployment, from a single 1×1 block to 10×10 configurations and beyond — the same software for one inspection station or ten thousand.
As physical AI moves from research into industrial deployment, perception has become the bottleneck. NuMorph provides perception-response native AI at the point where the sensing happens.
A camera running at 30 fps in a static warehouse aisle transmits thirty nearly identical images every second. The information content changes only when something moves — everything else is duplicated pixels consuming bandwidth, inference cycles, and disk.
ERN-AI is a perception-native compute layer that sits between the sensor and the AI stack, converting continuous frame data into sparse event representations before it ever reaches the network or the GPU. Redundancy is removed at the point of capture, where it originates.
The atomic unit, a micro-scale neuromorphic element from honeybee neurology. ~1000× lower power, trained on local micro-data, executing device-natively.
The Neuromorphic Edge Sensing Array organizes ALBs into a layered structure — evolutionary and reconfigurable in real time as scene conditions change. Tested 1×1 to 10×10.
ERN-AI is patent pending. Proof-of-concept demonstrations are complete and available for review under NDA — including ~500× compute reduction at 10×10.
Thousands of cameras stream video that mostly shows a line running normally. ERN-AI processes feeds as event streams — a line to spec produces almost no events; a deviation produces events immediately, at the sensor.
Defect detection no longer needs a GPU per frame. The ALB array operates on extracted events, so inference cost tracks meaningful change rather than frame rate — higher line speeds on the same hardware.
Resolution, latency, and battery pull against each other in frame-based systems. Event-driven sensing decouples them: data volume scales with scene activity, not resolution — higher-res perception without the power penalty.
Industry 4.0 stalls when legacy cameras aren't AI-ready. ERN-AI is a software retrofit that adds event-driven intelligence without full system replacement — an infrastructure project becomes a deployment.

Anywhere large numbers of sensors generate more data than the compute budget can absorb, ERN-AI brings perception-response native AI to the point where the sensing happens.
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