Practical guides to the data behind Physical AI: what it is, how robot training data is collected and labeled, how robot policies are evaluated, and where simulation fits. Start with the basics or go straight to your topic.
14 guides, newest first
Physical AI 3Data Collection 2Annotation 4Evaluation 4Simulation 1

Recognizing an object doesn't tell a robot how to hold it. Here's how shape, weight, material and clutter each change the problem, and what training data needs to capture.

From observation to operation: how robots acquire real-world skills.

Robots don't have to learn every job from scratch. They start with us.

A warehouse robot and a home robot aren't learning from the same data. How training data requirements shift by deployment environment, and what stays constant no matter where a robot works.

Diversity, sensor coverage, and consistent annotation matter more than raw volume. Here's how to tell if a dataset can actually teach a robot.

AI can find the moments that matter in hours of robot video and propose labels for them. Here's how CreativAI structures that footage, and where human review turns candidate labels into ones a team can train on.

From identifying weeds to harvesting crops, agricultural AI depends on accurately labeled images and real-world farming data.

Robotics annotation runs on judgment calls, not just labels. Here's why who does the labeling matters as much as how it's done.

Robot recordings capture behavior that unfolds over time. Annotation is what turns that into actions, states, events and outcomes a learning system can use.

Define what failure means for the task, search the footage for suspected failures with CreativAI, organize the results in Data Plates, then review and tag each attempt before drawing conclusions.

A robot is only as well tested as the scenarios it faces. Here's how robotics teams design benchmarks, variations, edge cases, and scoring rules that produce reliable comparisons across policy versions.

From detecting failed rollouts to diagnosing root causes, failure analysis helps robotics teams understand what went wrong and improve robot policies.

Loss curves and simulation scores only tell part of the story. Here's how robot policy evaluation works, and what a trustworthy benchmark looks like.