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Full Description
Essential Dynamics offers a streamlined yet comprehensive introduction to engineering dynamics, specifically designed for undergraduate students. Balancing academic rigor with accessibility, this textbook simplifies complex concepts while maintaining the depth necessary for a thorough understanding of the subject.
Organized into three progressive sections, the book builds foundational knowledge and advances to sophisticated topics. The first section introduces the principles of kinematics and kinetics for point masses, covering rectilinear and planar motion, force-modeling techniques, and the construction of free body diagrams. The second section transitions to more advanced systems, exploring collections of point masses and rigid body dynamics in planar motion. The final section culminates in an in-depth analysis of rigid body kinematics and kinetics in three-dimensional space, providing a complete framework for understanding dynamic systems. Each lesson is enriched with carefully designed problems and detailed solutions, reinforcing theoretical concepts and honing practical problem-solving skills
With figure slides available as an online resource, the book is ideal as a primary or supplementary resource for undergraduate courses, Essential Dynamics also serves as valuable preparation for professional engineers pursuing licensing examinations.
Contents
1: Newton's Law of Universal Gravitation
2: Rectilinear Kinematics of a Point
3: Planar, Curvilinear Kinematics of a Point Mass Using Rectangular Coordinates
4: Planar, Curvilinear Kinematics of a Point Using Polar Coordinates; Part 1, Velocity
5: Planar, Curvilinear Kinematics of a Point Using Polar Coordinates; Part 2, Acceleration
6: Planar, Curvilinear Kinematics of a Point Mass Using Normal-Tangential Coordinates
7: Relative Motion Using a Translating Rectangular Coordinate Frame
8: Kinematics of Atwood Machines
9: Planar Point Mass Kinetics Introduction
10: Point Mass Modeling and Common Forces
11: Using Free Body Diagrams in Planar Point Mass Kinetics
12: Linear Impulse-Momentum Equation for a Point Mass
13: The Work-Energy Equation for a Point Mass
14: Power of a Force Acting on a Point Mass
15: Conservation of Momentum for a Two-Point System; Central Impact
16: Oblique Impact Collision
17: Angular Momentum of a Point Mass with Planar Motion
18: Kinetics of a System of Point Masses; Part 1, Sum-of-Forces Equation
19: Kinetics of a System of Point Masses; Part 2, Sum-of-Moments Equations
20: Introduction to Planar Kinematics of Rigid Bodies
21: Velocity and Acceleration of a Point Fixed on a Rigid Body
22: Velocity of a Point that Moves on a Rigid Body that Itself Moves
23: Acceleration of a Point that Moves on a Rigid Body that Itself Moves
24: Plane Kinetics of Rigid Bodies, Part 1: Introduction
25: Plane Kinetics of Rigid Bodies, Part 2: Fixed Rotation
26: Planar Kinetics of Rigid Bodies, Part 3: Rotation about a Translating Pin
27: Work-Energy Equation for a Rigid Body with Planar, Fixed Rotation
28: Impulse-Momentum Equations for a Rigid Body with Planar Motion
29: Impulse-Momentum Equations for a System of Rigid Bodies with Planar Motion
30 - 35: Kinematics and Kinetics of a Rigid Body in Three Dimensions
