Introduction to Robotics and Kinematics

Robotics is transforming manufacturing, healthcare, and logistics, but mastering the field requires a solid grasp of physical and mathematical principles. This course provides a clear, step-by-step path to understanding how robotic manipulators move, think, and interact with their environment. You will transition from learning basic terminology to formulating the complex equations that govern robot motion and control. By reading through this comprehensive guide, you will gain the theoretical foundation and practical analytical skills needed to model and program robotic arms and automated systems. You will learn how to translate physical requirements into mathematical models, preparing you for more advanced applications in automation and autonomous systems. What you'll learn: - Understand the core terminology, classification, and anatomy of modern robotic systems - Calculate spatial transformations and rotations using homogeneous transformation matrices - Derive forward and inverse kinematics for multi-joint robotic manipulators - Analyze robot velocity and singularities using Jacobian matrices - Formulate dynamic equations of motion using Lagrangian mechanics - Apply basic feedback control loops to regulate joint positions and trajectories - Explore modern trends in robotics including path planning algorithms and safety-first design The course begins with foundational definitions, coordinate systems, and joint types before progressing through kinematics, dynamics, trajectory planning, and control strategies. It is designed for beginners, students, and engineers looking for a structured, mathematical introduction to robotics without needing prior specialized experience in the field. Read on to build your foundational knowledge of robotic engineering.