Robot Kinematics & Dynamics
Master the mathematical principles governing robot motion. Learn about forward and inverse kinematics, Jacobians, and dynamic modeling of robotic manipulators and mobile robots.
64 courses
Master the mathematical and physical principles of robot motion, from spatial transformations to advanced trajectory control.
Master the mathematical foundations of robot kinematics, spatial transformations, and configuration spaces to build a strong base for a career in modern robotics.
Learn to describe and predict the 3D movement of satellites and spacecraft using rigid body kinematics and modern coordinate transformation methods.
Learn to analyze and predict how forces impact rigid bodies in three-dimensional space, laying the foundation for modern mechanical engineering and robotics.
Master the essential mathematical principles of robot motion, from forward and inverse kinematics to URDF configuration, to start your journey in robotics engineering.
Master the essential mathematical concepts and engineering tools required to solve real-world problems in the field of robotics.
Master the mathematical principles of robot motion and force to understand how machines interact with the physical world and prepare for a career in robotics engineering.
Learn how robots plan paths and control their movements using foundational mathematics, kinematic modeling, and modern path-planning algorithms.
Learn to model and predict the motion of spacecraft by understanding angular momentum, kinetic energy, and torque-free rotation.
Learn the mathematical modeling, kinematics, and control strategies for robotic arms and wheeled mobile platforms in this comprehensive written guide.
Master the foundational mathematics of robotic arms, from spatial representations to forward and inverse kinematics, and design smooth trajectories for motion.
Learn to model, analyze, and simulate robotic systems using MATLAB, focusing on kinematics and motion control for beginners.
Coordinate wheeled mobile bases with robotic arms to perform complex manipulation tasks using modern trajectory planning and feedback control techniques.
Learn to model, simulate, and control spacecraft attitude dynamics through a practical Mars mission project using modern numerical simulation techniques.
Learn the mathematical and physical foundations of robot manipulators, mastering coordinate transformations and kinematics to design accurate digital robot models.
Master the fundamentals of robot kinematics, feedback control, sensor-based mapping, and path planning through clear, step-by-step text lessons.
Master the mathematical foundations of relative orbital mechanics to model rendezvous, docking, and close-proximity spacecraft operations.
Learn how child psychology principles inspire robot development to build machines that acquire sensorimotor and cognitive skills through environmental interaction.
Learn the essential mathematical and programming foundations to model, plan, and control robot manipulators and mobile robots through step-by-step written lessons.
Build a rock-solid foundation in 1D and 2D motion, vectors, and relative velocity to solve complex physics problems with confidence.
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