Robot kinematics

Related papers: 20

About

Robot kinematics is the mathematical study of motion in robotic systems, describing how a robot's physical structure moves through space without considering the forces that cause that motion. It establishes the geometric relationships between a robot's joints, links, and end-effector, enabling engineers to solve two fundamental problems: forward kinematics (determining end-effector position given joint configurations) and inverse kinematics (finding joint configurations to achieve a desired position or orientation). These principles apply across diverse robot types, from rigid serial manipulators and mobile wheeled platforms to continuum robots with flexible, continuously deforming bodies and legged systems like quadrupeds and humanoids. In practice, kinematic models underpin motion planning, trajectory control, redundancy resolution, and collision avoidance. They are also essential for robot calibration, which corrects real-world deviations from ideal models to improve accuracy. As robots increasingly operate alongside humans in unstructured environments, robust kinematic frameworks are critical for achieving precise, safe, and adaptable behavior across the full spectrum of robotic applications.

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