Product & architecture capabilities
One Physical AI product. Every critical layer.
Physical AI is not a model or a stack of vendors. It is one product system across hardware, software, data, AI, control, people and operations. Hyperion connects those layers at product, solution, system and software architecture depth.
Hyperion does not position itself as a general engineering bench. Technical fluency is used to make better product decisions, challenge assumptions, define evidence and coordinate the critical specialists required by the mandate.
Four capabilities, one purpose
Capability here means the ability to make and hold a decision — not a catalogue of technologies for sale. The domains further down the page are where these four are exercised.
Product decision ownership
Holding the consequential product and architecture decisions: what the product must do, what it must not do, which option is chosen and on what evidence. This is the capability; everything else exists to serve it.
Whole-system architecture fluency
Reading a complete Physical AI system — hardware, embedded control, software, data, models, safety and field operations — well enough to see where a choice in one layer becomes a constraint in another, and to challenge a specialist's answer instead of accepting it.
Evidence and readiness design
Deciding what would have to be observed before a system may advance: the acceptance bar, the tests that settle it, which classes of evidence count, and the conditions under which the work stops.
Specialist execution orchestration
Scoping, briefing and coordinating the specialists a mandate requires, with their role disclosed. Hyperion holds the decision and the acceptance bar; the implementation is carried out by your team or by named partners.
Trust, Safety & Cybersecurity
- L5Orchestration & Operations
Run, observe and recover a fleet across edge and cloud.
vLLM · TensorRT · fleet ops
- L4Intelligence & Knowledge
Vision-language-action models, open-weight intelligence and industrial knowledge.
Mistral · VLM/VLA · industrial RAG
- L3Perception & Robotics
Seeing, mapping, planning and moving in the physical world.
ROS 2 · SLAM · Isaac Sim
- L2Embedded Platform
The kernel-to-fleet software foundation that makes a device dependable.
Linux · Yocto · PREEMPT_RT · OTA
- L1Device & Controlground
Sensors, actuators and deterministic control at the physical edge.
Sensors · MCU/PLC · OPC-UA · CAN
The full Physical AI stack — embedded foundations at the base, building up through perception, intelligence and operations, with a trust, safety and cybersecurity envelope around every layer.
Where those decisions are exercised
- SYSApplied AI SystemsProduct, architecture, data and evaluation decisions for edge intelligence, governed knowledge and task-specific models.Explore pillar
- L1·L2Embedded & Edge SystemsReal-time control and AI at the edge — from silicon and RTOS to on-device inference.Explore pillar
- L3Robotics, VLMs & VLAsPerception-to-action systems on real robots, with a deterministic safety boundary.Explore pillar
- L4·L5Mistral & Open-Weight ModelsSovereign AI you own and run — open-weight models adapted to your domain.Explore pillar
- L4Industrial RAG & KnowledgeAnswers grounded in your manuals, specs and standards — traceable to source.Explore pillar
- —Physical-AI Safety & SecurityThe independent boundary that constrains, monitors and fails safe.Explore pillar
Across the open Physical AI ecosystem
The perception, control, and autonomy patterns we work in — illustrated across open robotics platforms.
Robot work cells
Inspection and manipulation cells read by a perception layer.
Fleets & charging
Energy and readiness monitoring across an autonomous fleet.
Ground vehicles & AGVs
Navigation and forward perception for mobile ground platforms.
SLM, RAG or neither?
Turn your task, evidence and operating constraints into a least-complex model strategy and a decision brief.