EN

Physical AI / Engineering Program

From Robot Data to Safe Action.

A modular training program for teams building robots, autonomous systems and embodied AI.

Instrument the task, collect demonstrations, train and evaluate policies, then deploy with safe-stop and controlled recovery built in.

Live + Applied Labs Platform-Tailored English / Hebrew
Two blue robotic arms representing a Physical AI system and its digital twin
Closed LoopPerception, policy, action and recovery.
Engineering EvidenceSuccess, latency and intervention rate.
PerceptionPolicyActionRecovery

The Complete Engineering Loop

A working system—not only a model.

Physical AI succeeds only when sensing, data, policy, timing and recovery are engineered as one closed loop.

01

Instrument

Define sensors, actuators, control rate and the safety envelope.

02

Demonstrate

Collect versioned teleoperation and human-in-the-loop data.

03

Train & Evaluate

Benchmark policies in simulation and under real operational constraints.

04

Deploy & Recover

Profile edge execution, detect OOD behavior and recover safely.

Tutor LMS Syllabus

Foundation of Physical AI Curriculum

Lesson 1

The Physical AI Stack

4 Videos

Build an operational definition of Physical AI, distinguish the principal model families, place them inside a complete real-time stack, and evaluate the system at offline, closed-loop, and operational levels.

The Physical AI Stack
Video 1.1

From Content Generation to Causal Intervention

Video 1.2

Model Families and Their Interfaces

Video 1.3

The Complete Engineering Stack

Video 1.4

Evaluation, Deadlines, and Operational Success

Lesson 2

The Physical Interface

4 Videos

Specify the physical meaning of tensors and commands: state, observation, action, coordinate frames, camera geometry, mechanics, estimation, timing, and partial observability.

The Physical Interface
Video 2.1

State, Observation, Belief, and Control

Video 2.2

Coordinate Frames and Camera Geometry

Video 2.3

Kinematics, Dynamics, and Contact

Video 2.4

Estimation, Time, and Partial Observability

Lesson 3

Data and Learning from Demonstrations

4 Videos

Treat demonstrations as sampled interaction trajectories, not exchangeable images. Design collection, imitation objectives, action chunks, normalization, splits, evaluation, and audits for real robot learning.

Data and Learning from Demonstrations
Video 3.1

Episode Schemas and Collection Policy

Video 3.2

Behavioral Cloning, Multimodality, and Shift

Video 3.3

Action Chunks and Cross-Robot Normalization

Video 3.4

Leakage-Free Splits, Evaluation, and Dataset Audit

Built for engineering teams

Robotics and embedded systems engineers
Autonomy, algorithms and machine-learning teams
Controls, edge and integration teams
Reliability, validation and safety teams

Flexible enterprise delivery

Live Online + LMSOn-Site Engineering LabsHybrid ProgramPlatform-Specific Reviews

The scope is tailored to your robot, sensors, control stack and operational constraints.

Niro and Neta, ArtificialGate learning companions Watch Now

Engineering Outcomes

What your team leaves with.

A complete system mapExplicit boundaries from sensing and state estimation to authorization and action.
A reproducible data pipelineVersioned demonstrations, measurable baselines and traceable evaluation.
A deployment readiness auditLatency, OOD behavior, fallback paths and recovery reviewed before rollout.
Physical AI Essentials by Dr. Barak Or

Program Companion

Physical AI Essentials

An engineering-first guide to perception, action, world models, simulation, digital twins, sim-to-real evaluation and reliable deployment.

Dr. Barak Or, Ph.D. · 2026 Edition
Open the Book →

Build Physical AI that can operate safely.

Tailor the program to your platform, engineering stack and deployment environment.