Overview

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Dive into the comprehensive study of Engineering Mechanics - Dynamics through a series of 39 lectures covering particle kinematics and kinetics, rigid body planar kinematics and kinetics, and 3D rigid body motion. Begin with an introduction to dynamics and review prerequisite content before exploring rectilinear and curvilinear motion using various coordinate systems. Progress to particle kinetics, examining force-mass-acceleration, work-energy principles, and momentum conservation. Advance to rigid body planar kinematics and kinetics, studying relative velocity and acceleration, sliding contacts, and moving reference frames. Conclude with an exploration of 3D rigid body kinematics and kinetics, including Euler's equations of motion, before reviewing all course content areas.

Syllabus

Lec01- Introduction to Dynamics (Theory) and Prerequisite Content Review.
Lec02 - Particle Kinematics (Theory) for Rectilinear Motion.
Lec03 - Particle Kinematics (Examples) for Rectilinear Motion.
Lec04 - Particle Kinematics (Theory & Examples) for Curvilinear Motion using Cartesian Coordinates.
Lec05 - Particle Kinematics (Theory) for Curvilinear Motion using Natural (N/T) Coordinates.
Lec06 - Particle Kinematics (Examples) for Curvilinear Motion using Natural (N/T) Coordinates.
Lec07 - Particle Kinematics (Theory) for Curvilinear Motion using Polar Coordinates.
Lec08 - Particle Kinematics (Examples) for Curvilinear Motion using Polar/Cylindrical Coordinates.
Lec09 - Particle Kinematics (Theory & Examples) Relative Motion.
Lec10 - Particle Kinetics (Theory & Examples) Force-Mass-Acceleration using Cartesian Coordinates.
Lec11 - Particle Kinetics (Theory & Examples) Force-Mass-Acceleration using Natural Coordinates.
Lec12 - Particle Kinetics (Theory & Examples) Force-Mass-Acceleration using Polar/Cyl. Coordinates.
Lec13 - Particle Kinetics (Theory) Work & Kinetic Energy.
Lec14 - Particle Kinetics (Theory) Work, Potential Energy, & Non-Conservative Forces.
Lec15 - Particle Kinetics (Examples) Work-Energy.
Lec16 - Particle Kinetics (Theory) Linear Impulse-Momentum and Collisions.
Lec17 - Particle Kinetics (Examples) Linear Momentum Conservation in Collisions.
Lec18 - Particle Kinetics (Theory & Examples) Angular Momentum Conservation.
Lec19 - Rigid Body Planar Kinematics (Theory) Relative Velocity.
Lec20 - Rigid Body Planar Kinematics (Examples) Relative Velocity.
Lec21- Rigid Body Planar Kinematics (Theory & Examples) Relative Acceleration.
Lec22 - Rigid Body Planar Kinematics (Theory) Sliding Contacts.
Lec23 - Rigid Body Planar Kinematics (Examples) Sliding Contacts.
Lec24 - Rigid Body Planar Kinematics (Theory) Moving Reference Frames.
Lec25 - Rigid Body Planar Kinetics (Theory & Examples) Mass Moment of Inertia.
Lec26 - Rigid Body Planar Kinetics (Theory) Force-Mass-Acceleration.
Lec27 - Rigid Body Planar Kinetics (Examples) Force-Mass-Acceleration.
Lec28 - Rigid Body Planar Kinetics (Theory) Work-Energy.
Lec29 - Rigid Body Planar Kinetics (Examples) Work-Energy.
Lec30 - Rigid Body Planar Kinetics (More Examples) Work-Energy.
Lec31- Rigid Body Planar Kinetics (Theory) Angular Impulse & Momentum.
Lec32 - Rigid Body Planar Kinetics (Theory & Example) Impacts & Momentum Conservation.
Lec33 - Rigid Body Planar Kinetics (Example) Impacts & Momentum Conservation.
Lec34 - Rigid Body 3D Kinematics (Theory).
Lec35 - Rigid Body 3D Kinematics (Examples).
Lec36 - Rigid Body 3D Kinetics (Theory) Geometrical Properties.
Lec37 - Rigid Body 3D Kinetics (Theory) Euler's Equations of Motion.
Lec38 - Rigid Body 3D Kinetics (Examples) Euler's Equations of Motion.
Lec39 - Review of Course Content Areas.