simulation-code-validation

Validate robotics simulation code for ROS 2, Gazebo, and Isaac Sim.

Updated Nov 27, 2025
One-click install
npx skills add https://github.com/DevHammad0/physical-ai-robotics-textbook --skill simulation-code-validation
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: simulation-code-validation
Source: https://github.com/DevHammad0/physical-ai-robotics-textbook/tree/main/.claude/skills/simulation-code-validation
Command: npx skills add https://github.com/DevHammad0/physical-ai-robotics-textbook --skill simulation-code-validation

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Developing robotics simulation code often leads to subtle errors, compatibility issues, and pedagogical pitfalls that can hinder learning and deployment. This skill provides a rigorous framework to validate code for ROS 2, Gazebo, and Isaac Sim, ensuring it is syntactically correct, follows best practices, and is safe for educational use.

Core Features & Use Cases

  • Multi-Layered Code Validation: Perform static syntax checks (Python, PEP 8), ROS 2 pattern validation (publishers, subscribers, topic naming), and simulator-specific checks (URDF/SDF for Gazebo, USD for Isaac Sim).
  • Pedagogical Safety Assurance: Prevent "forward references" in educational content, ensure CEFR-appropriate concept density, and verify that all code examples include expected outputs and comprehensive troubleshooting.
  • Troubleshooting Completeness Audit: Systematically review code examples to ensure common errors are documented with clear causes and solutions, enhancing the learning experience.
  • Use Case: A course developer is preparing a new lesson on mobile robot navigation in Gazebo. This skill can be used to validate all Python code, URDF models, and lesson text to ensure technical accuracy, prevent common student errors, and maintain a high standard of pedagogical quality.

Quick Start

Using the simulation-code-validation skill, audit the provided Python ROS 2 publisher node for PEP 8 compliance and correct rclpy.init() usage.

Frequently Asked Questions about simulation-code-validation

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I validate ROS 2 and Gazebo simulation code for syntax errors and best practices?

Robotics simulation code validation checks Python syntax (PEP 8), ROS 2 patterns (publishers, subscribers, topic naming), and simulator-specific markup (URDF/SDF for Gazebo, USD for Isaac Sim) to catch errors before deployment and ensure code follows established conventions.

Can I validate URDF and SDF files for Gazebo and Isaac Sim models in my robotics curriculum?

Yes. This validation framework audits URDF/SDF markup correctness, USD asset validity for Isaac Sim, and pedagogical safety—preventing forward references and ensuring concept density is appropriate for learners while maintaining technical accuracy.

What's the best way to ensure robotics simulation code examples are safe and complete for teaching?

Perform multi-layered validation: static syntax checks, ROS 2 pattern conformance, simulator-specific markup verification, and comprehensive troubleshooting audits that document common student errors with clear causes and solutions for each code example.

How do I troubleshoot common errors in ROS 2 nodes and simulation models systematically?

This framework systematically reviews code examples to identify and document common errors—syntax mistakes, incorrect `rclpy.init()` usage, topic naming issues—with clear root causes and step-by-step solutions, reducing student debugging time.

Does this validation work with MuJoCo, Gazebo, and Isaac Sim in a single framework?

Yes. The framework spans ROS 2, Gazebo, Isaac Sim, and MuJoCo tutorials, validating Python syntax, ROS 2 patterns, and markup (URDF/SDF/USD) across all four simulators in one comprehensive validation pass.

Why should I validate simulation code before publishing robotics tutorials?

Code validation prevents subtle compatibility issues, unsafe patterns, and pedagogical pitfalls that hinder learning and deployment. It ensures examples are syntactically correct, follow ROS 2 best practices, and include complete troubleshooting guidance.