Physical AI & Humanoid Robotics
Welcome to the Physical AI & Humanoid Robotics course! Master the future of embodied intelligence - from ROS 2 to NVIDIA Isaac.
π― Course Overviewβ

The future of AI extends beyond digital spaces into the physical world. This comprehensive course introduces Physical AIβAI systems that function in reality and comprehend physical laws. You'll learn to design, simulate, and deploy humanoid robots capable of natural human interactions using ROS 2, Gazebo, and NVIDIA Isaac.
Humanoid robots are poised to excel in our human-centered world because they share our physical form and can be trained with abundant data from interacting in human environments. This represents a significant transition from AI models confined to digital environments to embodied intelligence that operates in physical space.
π Course Structureβ
This course is divided into 4 comprehensive modules covering 13 weeks of content:
Module 1: The Robotic Nervous System (ROS 2)β
Weeks 3-5 | Focus: Middleware for robot control

Learn the fundamental communication layer that powers modern robotics:
- ROS 2 architecture, nodes, topics, and services
- Building ROS 2 packages with Python (rclpy)
- URDF (Unified Robot Description Format) for humanoids
- Real-time control and sensor integration
Module 2: The Digital Twin (Gazebo & Unity)β
Weeks 6-7 | Focus: Physics simulation and environment building

Master the art of creating realistic virtual environments:
- Physics simulation: gravity, collisions, and rigid body dynamics
- High-fidelity rendering with Gazebo and Unity
- Simulating sensors: LiDAR, Depth Cameras, and IMUs
- Building custom robot worlds
Module 3: The AI-Robot Brain (NVIDIA Isaacβ’)β
Weeks 8-10 | Focus: Advanced perception and training

Harness the power of NVIDIA's robotics platform:
- NVIDIA Isaac Sim: Photorealistic simulation
- Synthetic data generation for AI training
- Isaac ROS: Hardware-accelerated VSLAM
- Nav2: Path planning for bipedal movement
Module 4: Vision-Language-Action (VLA)β
Weeks 11-13 | Focus: The convergence of LLMs and Robotics
Connect language models to physical actions:
- Voice-to-Action using OpenAI Whisper
- Cognitive planning with LLMs
- Multi-modal interaction: speech, gesture, vision
- Capstone Project: The Autonomous Humanoid
π Learning Outcomesβ
By the end of this course, you will be able to:
- β Understand Physical AI principles and embodied intelligence
- β Master ROS 2 (Robot Operating System) for robotic control
- β Simulate robots with Gazebo and Unity
- β Develop with NVIDIA Isaac AI robot platform
- β Design humanoid robots for natural interactions
- β Integrate GPT models for conversational robotics
π οΈ Prerequisitesβ
Software Skillsβ
- Python programming (intermediate level)
- Basic understanding of C++ (helpful but not required)
- Linux command line basics (Ubuntu 22.04 recommended)
- Git version control
Hardware Requirementsβ
For optimal learning experience:
Minimum Setup:
- PC with NVIDIA RTX GPU (RTX 4070 Ti or better, 12GB+ VRAM)
- 64GB RAM (32GB minimum)
- Ubuntu 22.04 LTS (native or dual-boot)
- Intel Core i7 (13th Gen+) or AMD Ryzen 9
Recommended for Physical AI:
- NVIDIA Jetson Orin Nano (8GB) for edge deployment
- Intel RealSense D435i camera for vision
- Simulation-first approach (works without physical hardware)
Don't have powerful hardware? Use cloud instances:
- AWS g5.2xlarge (A10G GPU, 24GB VRAM)
- NVIDIA Omniverse Cloud
- Estimated cost: ~$205/quarter
π Course Timelineβ
| Weeks | Module | Focus |
|---|---|---|
| 1-2 | Introduction | Physical AI foundations, sensor systems |
| 3-5 | Module 1 | ROS 2 fundamentals and control |
| 6-7 | Module 2 | Gazebo & Unity simulation |
| 8-10 | Module 3 | NVIDIA Isaac platform |
| 11-12 | Module 4 Part 1 | Humanoid development, VLA |
| 13 | Module 4 Part 2 | Conversational robotics, Capstone |
π Assessmentsβ
You will be evaluated through:
- ROS 2 package development project
- Gazebo simulation implementation
- Isaac-based perception pipeline
- Capstone Project: Simulated humanoid robot with conversational AI
- Receives voice commands
- Plans paths autonomously
- Navigates obstacles
- Identifies and manipulates objects
π How to Use This Textbookβ
- Sequential Learning: Start with Module 1 and progress through each module
- Hands-On Practice: Each chapter includes code examples and exercises
- Project-Based: Build projects throughout the course
- Community: Join discussions and share your progress
Ready to begin your journey into Physical AI? Start with Weeks 1-2: Introduction to Physical AI to understand the foundations before diving into the modules.
π€ Support & Resourcesβ
- GitHub Repository: Access course code and examples
- Discussions: Ask questions and connect with peers
- Hardware Guides: Detailed setup instructions for each platform
Let's build the future of embodied intelligence together! π€
Select a module above to begin your learning journey.