Powering AI/Compute with

Nature's Efficiency

OpenGPU™ is an AI/compute-first open-standards initiative transforming the future of computing with nature-inspired, open-standard hardware that scales from IoT to data centers, with 100x efficiency gains.

What is
Neuromorphic Computing?

Inspired by nature and modeled after the way insect & animal brains work, neuromorphic computing offers a leap forward in adaptability, speed, and energy efficiency by applying key lessons from the structure and function of biological neural systems. This includes: leveraging time (e.g., temporal computing), randomness & noise (e.g., stochastic computing), and enormous interconnectivity (e.g., multi-dimensional neural connectivity fabrics).

Chart: Sandia Lab

Neuromorphic Chart

How does OpenGPU approach
Neuromorphic Computing?

Whether analog, Josephson junction, or plain-old digital CMOS, OpenGPU supports fundamental improvements in AI/Compute-first architectural advances that can also handle graphics (and importantly, not the other way around).

OpenGPU funds research, development, prototyping works, and sponsored labor that are readily manufacturable and have/will have tangible benefits, as well as advance the field of neuromorphic computing. The only proviso being that the work must contribute back into the open standard, helping "raise the tide for all boats" through interoperable hardware/software interfaces that can be readily adopted by the ecosystem and future developers.

Why do Biological Systems inspire?

Edge-friendly. Low power. Self-learning. Enormously powerful. Biological brains show us how to achieve all four—processing locally, adapting on the fly, and doing more with less.

bee

bee Brain

Neurons
~1 million
Training
Bees training bees
Power Budget
1 sip of sugar-water* (<21 microwatts**)
dog

dog Brain

Neurons
530 million
Training
Operant conditioning
Power Budget
1 dog biscuit (3~8 watts*)
human

human Brain

Neurons
86 billion
Training
Parental conditioning, education & experience
Power Budget
13~25 watts*

Training Compute Requirements Are Increasing Exponentially

Model complexity and parameter memory are growing exponentially. Traditional computing can't keep up. Biology shows us a better way.

Source: Veronika Samborska (2025) - "Scaling up: how increasing inputs has made artificial intelligence more capable" Published online at OurWorldinData.org

85 TWh

Annual Energy Consumption

5x

Environmental Cost

800 GW

Nuclear Power Needed

Source: NBC News

Our Values

We bridge cutting-edge neuroscience, research institutions, universities, and disruptive startups with industry demand for scalable, manufacturable solution, driving the next generation of AI and computing.

Disruptive

We challenge legacy architectures with all-digital, nature-inspired hardware capable of 100x efficiency gains.

Interoperable

We build on extensible, open standards to ensure collaboration and long-term compatibility.

Transformative

Our AI-first architecture is designed to scale seamlessly across the entire stack, from IoT devices to data centers.

Sustainable

Nature does more with less. We apply these lessons to computing to reduce waste and environmental impact.

Scalable & Resilient

By fostering an open ecosystem, OpenGPU thrives independently of any single chipmaker or vendor.

Empowering

We believe in democratizing access to advanced AI compute, fueling innovation for all.

Real-World Applications

From insect-inspired drones to edge AI devices, OpenGPU technology enables applications that were previously impossible due to power constraints.

2018 Neuromorphic Supercomputer: Manchester Uni, UK
2023 Supercomputer capable of brain-scale simulation: ICNS, Australia
2024~5 Development of 2nd Generation SpiNNaker neuromorphic computer: Dresden University of Technology, Germany
2024 Hala Point with 1.15 billion artificial neurons: Sandia Labs, USA