Engineering Dynamics: Kinematics and Kinetics of Rigid Bodies

Analyzing how objects move under the influence of forces is central to mechanical, civil, and aerospace engineering. This course provides the rigorous foundation needed to understand and calculate the dynamics of real-world systems. By the end of this course, you will be able to apply Newton's laws, work-energy theorems, and impulse-momentum methods to solve two- and three-dimensional dynamics problems involving particles and rigid bodies, transitioning from theoretical concepts to practical engineering analysis. What you'll learn: * Understand the kinematics of particles and rigid bodies, including absolute and relative motion analysis in various coordinate systems. * Apply Newton's second law and the kinetic equations of motion to solve problems involving forces, mass, and acceleration. * Master the work-energy method and the principle of impulse and momentum for efficient analysis of system changes. * Analyze the dynamics of rigid bodies rotating about fixed axes and undergoing general plane motion. * Practice setting up and solving the coupled differential equations that describe dynamic systems using structured analytical methods. * Configure coordinate systems and apply vector mechanics to simplify complex three-dimensional motion problems. This course begins with essential definitions and mathematical prerequisites, then systematically introduces the core laws of motion for particles before expanding to the complex dynamics of rigid bodies. The material is reinforced through structured, written practice exercises and detailed derivations. This course is designed for absolute beginners in engineering dynamics, including students and professionals who need a strong theoretical and practical foundation. No prior knowledge of dynamics is required, only basic calculus and physics. Start building your expertise in mechanical system analysis today.