*Based on a simulated workload of a humanoid moving an object within a hazardous environment with humans present. Energy estimations are based on published data for similar workloads. We are continuing to refine our simulator, so these numbers are subject to change.
Organosynthetic Super Intelligence
A neuroscience-inspired, event-driven compute platform designed for adaptive intelligence in robotics and autonomous systems.
Tell us where you are building and whether you want to evaluate OSSI or explore a technology, R&D or commercial partnership.
Modeled performance of our architecture, benchmarked against the leading edge accelerators in the world today.
* Based on a simulated workload of a humanoid moving an object within a hazardous environment with humans present. Energy estimations are based on published data for similar workloads. We are continuing to refine our simulator, so these numbers are subject to change.
Simulator estimates — not measured silicon.
Most neuromorphic players sit in one of three lanes — edge efficiency, sensor vision or research platform. OSSI is building the multi-region architecture none of them are.
High potential, early traction — a differentiated architectural thesis with a sharp beachhead in robotics and defence-oriented edge intelligence.
Optimise efficiency at a single narrow task. We span seven cognitive functions.
Locked to a modality. Our architecture generalises across visual, audio and sensory streams.
Validate the field at scale but don't ship a focused commercial wedge. We do.
OSSI is running an evaluation pipeline with robotics teams — simulated workloads first, then FPGA prototypes carrying your task profile.
Simulated workloads on your task profile
FPGA MVP into your autonomy stack
Feedback shapes the next iteration
Event-driven processing turns continuous inference into sparse, on-demand computation — power budgets stop dictating mission scope.
On-chip learning lets behaviour update in the field, without round trips to the cloud or a retrain cycle.
Latency follows signal arrival, not batch schedules — critical for balance, manipulation and fast-moving perception.
Energy results quoted on this site are modeled outcomes from an actively refined simulator and are subject to change as the model matures.
A rare combination of clinical neuroscience, frontier neuromorphic research and decades of silicon-grade engineering — supported by ex-SpaceX, ex-ARM and ex-Deloitte team members — assembled to execute on adaptive, real-world AI.
Co-founder & CEO
Clinical neuroscientist turned operator. Leads vision, commercial strategy and partnerships at OSSI.
Co-founder & CRO (Chief Robotics Officer)
One of Europe's leading voices in neuromorphic computing and cognitive robotics.
Lead Neuromorphic Algorithm Engineer
30+ years in AI and neural-network engineering with direct SpiNNaker2 lineage from a leading UK university group. 15+ peer-reviewed publications spanning silicon, simulation and spiking neural networks.
Hardware Silicon Lead Engineer
Ex-SpaceX with over 25 years of experience in FPGA and custom ASICs — spanning silicon architecture, tape-out readiness and high-reliability systems.
Neuromorphic Hardware Advisor
Senior contributor to next-generation neuromorphic silicon programs in Europe — deep expertise in low-power compute architectures and event-driven processing.
Robotics & Embodied AI Advisor
Founder-level operator in autonomous robotics, advising on real-world deployment of adaptive control and sensorimotor learning systems.
Industry & Governance Advisors
Ex-ARM and ex-SpaceX directors, together with ex-Deloitte leadership — deep-tech board operators and industry advisors across the UK, EU and US.