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RoboTensor
Industrial robot cell aligning a gear with a gearbox shaft, drawn half as shaded hardware and half as its CAD twin.

Physical AI Research & Development

Where robotintelligencemoves forward.

RoboTensor builds the infrastructure that turns robot foundation models into specialized physical capabilities—shaped around real tasks, real machines, and real operating environments.

Intelligence is what the robot can do.

Core belief

Foundation models are general. Physical work is specific.

Every robot operates through a different body, inside a different environment, toward a different objective. Its intelligence must be shaped around the task.

Relation

01

01

Foundation model

02

Robot

03

Task

04

Environment

Specialized physical capability

The platform

Infrastructure for robot intelligence.

Four connected layers. Each one feeds the next, and every result returns to the model that produced it.

  1. 01

    Model adaptation

    Turn general VLA models into intelligence specialized for a robot and task.

    general → specialized

  2. 02

    Simulation

    Reconstruct operating environments where capabilities can be developed safely and repeatedly.

    environment → digital twin

  3. 03

    Benchmarking

    Define tasks, variations, constraints, and objective measures of physical success.

    task → definition

  4. 04

    Evaluation

    Measure what the robot can actually complete—not how convincing a demonstration looks.

    behaviour → measurement

Development process

From a real problem to a real capability.

Seven steps, run in order and then run again. Each pass returns a capability that can be measured, compared, and advanced.

  1. 01

    Scope the problem

    Define the physical work, operating conditions, constraints, and success criteria.

  2. 02

    Choose the robot

    Map the capability to the embodiment, sensors, cameras, grippers, and control interface.

  3. 03

    Design the benchmark

    Create representative tasks, variations, edge cases, and measurable outcomes.

  4. 04

    Build the simulation

    Construct the digital twin and physics environment needed for development and evaluation.

  5. 05

    Train the model

    Adapt the foundation model using task-relevant data and post-training methods.

  6. 06

    Measure the capability

    Evaluate repeatability, robustness, precision, and task completion.

  7. 07

    Advance the robot

    Transfer the improved capability and continue from one capability to the next.

Capability breadth

One platform. Many forms of work.

Every industry requires its own physical intelligence. RoboTensor develops capabilities around the work, embodiment, and environment—not around a single category of robot.

Technical plate of a robot end-effector aligning a gear with a shaft under tight tolerance.
01tolerance-bound insertion

Precision assembly

Aligning and inserting mechanical components under tight physical tolerances.

Technical plate of a robot arm selecting mixed cartons from a tote for packing.
02varied objects, changing flow

Warehouse handling

Perceiving, selecting, and packing varied objects in changing workflows.

Technical plate of two robot grippers spreading a flexible fabric panel across a work surface.
03deformable state

Textile manipulation

Coordinating motion around flexible, deformable materials.

Technical plate of a soft gripper placing irregular products into a packaging tray.
04irregular, delicate

Food packaging

Handling irregular and delicate products safely and precisely.

Technical plate of a robot arm transferring labware between a rack and an instrument deck.
05repeatable, vision-guided

Laboratory automation

Performing repeatable, vision-guided manipulation in structured technical environments.

Representative domains, not a closed set. The platform applies wherever physical work can be defined and measured.

Research standard

Real robots.Real tasks.Real benchmarks.

Physical intelligence should be evaluated through physical outcomes. We build around tasks that expose whether a robot can perceive, adapt, and complete the work consistently.

Train against tasks. Measure against reality.

Research direction

Turning foundation models into physical skills.

RoboTensor is being built now. These are the directions the work is organised around.

  1. R1

    Industry-specific VLA post-training

    Methods for adapting vision-language-action models to a defined embodiment, task family, and set of operating conditions.

  2. R2

    Simulation and digital-twin environments

    Reconstructing real cells with enough physical fidelity that a capability developed in simulation holds on the machine.

  3. R3

    Task benchmarks and physical-capability evaluation

    Task definitions, variation sets, and measures that describe what a robot can complete rather than how a demonstration appears.

From general intelligence to specialized capability. From one capability to the next.

  • A model is not capable until a robot can act.

  • Intelligence is shaped around the task.

  • The real world is the final benchmark.

Contact

Teaching robots the language of action.

RoboTensor is building the systems through which robot intelligence can be defined, developed, measured, and continuously advanced.

Who we want to hear from

  • Researchers
  • Robot companies
  • Industry partners