PHYSICAL AI

Train robots on real human expertise.

Egocentric demonstrations, hand-object interactions, tool use, and task outcomes captured from skilled people in real operating environments.

Design a physical AI collection
CONTEXT TRAJECTORY LIVE SIGNAL
01ObserveEnvironment + signal
02InterpretMeaning + alternatives
03DecideIntent + rationale
04ActPhysical + digital action
05OutcomeState change + result

HUMAN DEMONSTRATIONS

Capture the complete physical task—not just the movement.

Pair what the expert sees with their objective, task state, actions, tool interactions, corrections, and verified result.

Egocentric POV

First-person visual context aligned to the expert’s natural task perspective.

Hand-object interaction

Manipulation, contact, grasp, placement, and state change through the task.

Tool use

Tool selection, setup, operation, switching, and relationship to the task objective.

Task decomposition

Break long-horizon activities into observable phases, actions, and state transitions.

Success + verification

Ground demonstrations in task outcomes, acceptance checks, and final state.

Failure + recovery

Capture mistakes, unexpected conditions, human correction, and recovery behavior.

THE FULL OUTCOME SPACE

Success alone is not enough.

Physical systems need examples of how tasks fail, how experts detect the change, and how they adapt. Collection programs can intentionally cover clean demonstrations, errors, interventions, edge cases, and recoveries.

01 / NOMINALSuccess
02 / VARIATIONEdge case
03 / DEVIATIONFailure
04 / INTERVENTIONRecovery

OPERATING ENVIRONMENTS

Where physical intelligence happens.

Programs can target high-value tasks across controlled sites, working facilities, and skilled-trade environments.

  • Assembly + manufacturing01
  • Repair + maintenance02
  • Inspection + quality03
  • Warehouse operations04
  • Construction + skilled trades05
  • Equipment operation06
  • Laboratory workflows07
  • Agriculture + field work08