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A service for running PDCA cycles in-house while understanding physical AI

Physical AI Canvas

Physical AI development, with no-code and AI

Connect robots and cameras to record data, let AI evaluate and tag it, and review and correct the results yourself — all on one screen. The people on the floor can run PDCA cycles in-house and bring physical AI development in-house.

The Physical AI Canvas pipeline screen, with a jog pad, robot arm, two cameras and a sync recorder connected as nodes and the add-node menu open

The future of physical AI development

For physical AI data, quality matters as much as quantity

You need to evaluate successes, failures and differences in motion to decide which data to train on. That takes a single, integrated setup from recording through evaluation and labeling.

But building that setup takes effort

Preparing the development and recording setup

Connecting and synchronizing robots and cameras has to be built from scratch.

Preparing the evaluation and labeling setup

Defining evaluation criteria and managing tags also takes work before the data is usable.

With Physical AI Canvas,

develop physical AI with no code.

01Data collection

Collect data easily, with no code

Connect robots and cameras and record motion and video together.

02AI evaluation

AI evaluates and tags automatically

AI evaluates recorded data and adds tags automatically.

03Review & correction

Human corrections are easy on screen

Check the video and analysis, then correct evaluations and tags by hand.

The development flow, from data collection to deployment

  1. 01

    Record

    Capture motion and video in sync

  2. 02

    Label

    Rate success, failure and quality

  3. 03

    Dataset

    Filter and organize by condition

  4. 04

    Train

    Tune the model

  5. 05

    Deploy

    Apply it to the robot

Our goal: development you can keep running on site

Run PDCA cycles in-house and own your development.

Evaluate the data you collect, revisit the conditions and collect again. The people on the floor keep improving, and your own know-how feeds back into development.

Run itin-houseCollectEvaluateReviseRe-collect

Key features of Physical AI Canvas

PipelineRecordingControl inputRobotSensorsRecord & evaluateControl deviceKeyboard · 3D mouseRobot armSimulationCameraOverhead · 30 fpsCameraWrist · 30 fpsSync recorderState + videoAI evaluationResult · tagsAdd nodeD-pad controlRule-based motionVR teleoperationCameras can't connect to cameras

Point1No-code development

Build the recording setup by connecting nodes

Connect robots, cameras, control devices and recorders as nodes to assemble your recording setup. Meaningless connections are rejected on the spot, so you reach a correct setup without guesswork.

DatasetEpisodesSearch tags or conditionsep_0124★★★★★Successpick_placeep_0123★★★★★Successdemoep_0122★★★★★Failurereviewep_0121★★★★★Successpick_placeep_0120★★★★★FailurereviewOverheadLIVEWristLIVEJoint anglesAI evaluationConfidence 82%Failure★★★★★Missed graspToo highCorrectFailure → SuccessSuccess rate67%Quality

Point2Data visualization

Check AI evaluations and tags, then correct them

AI evaluates recorded data and adds success/failure labels and tags automatically. You can also correct evaluations and tags by hand while reviewing the video and analysis.

EnvironmentSimulationReal robotSimulationJust load the modelURDFUSDReal robotDevices detected automaticallyRobot arm✓ ConnectedCameras × 2✓ Connected3D mouse✓ Connected

Point3Robots and environments

Develop in simulation and on real robots

In simulation, it supports robot models available in URDF/USD format. With real robots, connected devices are detected automatically.

Control & recordingRecordingOperateKeyboard3D mouseVROverheadLIVEWristLIVEJ1J2J3J4J5J6Video/state lag 12 ms✓ SyncJoint anglesOverhead camWrist camSync

Point4Teleoperation and synced recording

Record motion and video as you operate

Operate the robot with a keyboard, 3D mouse or other device, and record motion and multiple camera feeds in sync — including motion data for training VLA and other models.

AssistantEpisodesep_0124Successep_0123Successep_0122Failureep_0121SuccessWhy did this episode fail?Estimated causeThe grasp was about 4 cm too highThe task continued without a graspSuggested fixes1Lower the grasp target by 4 cm2Check the grasp before moving onBased on analysis data: z 0.98 m · idle 41%How many episodes do I need?How do I use this?Ask a question

Point5AI assistant

Estimates causes of failure and suggests fixes

The assistant estimates the cause of a failure from the analysis data and suggests improvements. It also answers questions about using the tool and about training data.

How adoption works

  1. 1

    Consultation

    We learn about the target task, your robots and cameras, and your site environment.

  2. 2

    Validation in simulation

    Before preparing real hardware, we try the flow from recording to dataset in simulation.

  3. 3

    Real robot & data collection

    We connect your real robots and cameras and collect data on site.

  4. 4

    Train, deploy, improve

    We apply the model trained on your data to the robot and keep improving it based on the results.

Selected collaborations and projects

YAZAKI × Airion

Press release2026.09.24

Airion Partners with Yazaki Corporation to Enable Self-Driven Physical AI Development on the Factory Floor

Airion is providing Physical AI Canvas to Yazaki. Airion engineers support the first phase, with the goal of Yazaki's own teams running the cycle from data collection and model validation to robot deployment and improvement.

Read the announcement

  • Yazaki
  • Mitsubishi Electric
  • OMRON
  • Tokyo Gas
  • Matsuo Institute
  • Sumitomo Heavy Industries

* Includes contract development projects.

Request a demo / consultation

Feel free to ask for a demo or questions like "Will this work with our robot?"

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