Humanoid Robot Programming
Learn to design, program, and control humanoid robots using modern robotics frameworks, AI techniques, and real-world motion, perception, and interact
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Bipedal locomotion systems (legs and feet)
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Multi-joint arms and hands
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Sensors such as cameras, LiDAR, IMUs, force sensors, and microphones
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Onboard computing units
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AI-based perception and decision-making modules
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Low-level control – motor control, torque, balance, and joint actuation
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Mid-level control – gait generation, motion planning, manipulation
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High-level intelligence – perception, reasoning, learning, and interaction
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Center of Mass (CoM)
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Zero Moment Point (ZMP)
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Gait generation
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Whole-body control
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Vision-based perception (object detection, pose estimation)
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IMU-based orientation and balance
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Sensor fusion using Kalman and particle filters
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Trajectory planning
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Collision avoidance
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Grasp planning and object manipulation
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Reinforcement learning for locomotion
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Behavior trees and state machines
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Learning from demonstration
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Vision-based decision-making
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Speech and gesture interaction
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Social behaviors
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Safety and ethical considerations
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Strong foundations in robotics and control systems
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Hands-on experience with ROS and simulation tools
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Skills in bipedal locomotion and balance
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Knowledge of AI-driven robot perception
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Ability to program real-world humanoid systems
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Career-ready expertise in advanced robotics
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Exposure to cutting-edge research and applications
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Humanoid robot architecture and components
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ROS / ROS 2 for humanoid systems
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Kinematics, dynamics, and control
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Gait generation and walking algorithms
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Vision-based perception and sensor fusion
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Motion planning and manipulation
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Reinforcement learning for robotics
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Simulation with Gazebo and MuJoCo
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Safety, ethics, and human interaction
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Capstone: program a humanoid robot to walk, perceive, and interact
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Start with robotics fundamentals
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Practice in simulation before real hardware
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Experiment with locomotion and balance algorithms
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Integrate perception with motion control
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Build AI-driven behaviors incrementally
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Complete the capstone humanoid robot project
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Robotics Engineers
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AI & ML Engineers
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Mechatronics Engineers
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Control Systems Engineers
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Computer Science Students
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Researchers in robotics and AI
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Anyone interested in humanoid robotics
By the end of this course, learners will be able to:
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Understand humanoid robot architecture and control
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Implement kinematics and dynamics models
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Program stable walking and balance systems
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Use ROS for humanoid robot development
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Build perception pipelines using vision and sensors
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Apply AI techniques for adaptive robot behavior
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Simulate and deploy humanoid robot systems
Course Syllabus
Module 1: Introduction to Humanoid Robotics
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History and applications
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Robot anatomy
Module 2: Robotics Fundamentals
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Kinematics and dynamics
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Coordinate frames
Module 3: ROS for Humanoid Robots
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Nodes, topics, services
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ROS 2 architecture
Module 4: Locomotion & Balance
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Gait planning
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ZMP and CoM control
Module 5: Motion Planning
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Trajectory generation
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Collision avoidance
Module 6: Perception & Sensor Fusion
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Vision pipelines
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IMU and LiDAR integration
Module 7: Manipulation & Grasping
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Arm control
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Object handling
Module 8: AI & Learning for Robots
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Reinforcement learning
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Behavior trees
Module 9: Simulation & Testing
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Gazebo
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MuJoCo
Module 10: Human–Robot Interaction
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Speech, gestures, safety
Module 11: Capstone Project
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Build and program a humanoid robot system
Learners receive a Uplatz Certificate in Humanoid Robot Programming, validating skills in robotics control, AI integration, and humanoid system development.
This course prepares learners for roles such as:
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Robotics Engineer
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Humanoid Robot Developer
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AI Robotics Engineer
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Control Systems Engineer
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Research Scientist (Robotics)
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Autonomous Systems Engineer
1. What is a humanoid robot?
A robot designed with a human-like body structure to operate in human environments.
2. Why is humanoid robot programming complex?
Because it involves balance, locomotion, perception, and real-time decision-making.
3. What is ROS?
A middleware framework for building and controlling robotic systems.
4. What is ZMP?
Zero Moment Point — a stability criterion for bipedal robots.
5. How do humanoid robots maintain balance?
By controlling center of mass and ground reaction forces.
6. What sensors are used in humanoid robots?
Cameras, IMUs, force sensors, LiDAR, microphones.
7. What role does AI play in humanoid robots?
It enables perception, learning, and adaptive behavior.
8. What is inverse kinematics?
Computing joint angles required to reach a target position.
9. Can humanoid robots learn to walk?
Yes, using reinforcement learning and optimization techniques.
10. Where are humanoid robots used today?
Research labs, healthcare, manufacturing, education, and service industries.





