Classical Mechanics: Problems and Solutions

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This book of problems and solutions in classical mechanics is dedicated to junior or senior undergraduate students in physics, engineering, applied mathematics, astronomy, or chemistry who may want to improve their problems solving skills, or to freshman graduate students who may be seeking a refresh of the material.

The book is structured in ten chapters, starting with Newton’s laws, motion with air resistance, conservation laws, oscillations, and the Lagrangian and Hamiltonian Formalisms. The last two chapters introduce some ideas in nonlinear dynamics, chaos, and special relativity. Each chapter starts with a brief theoretical outline, and continues with problems and detailed solutions. A concise presentation of differential equations can be found in the appendix. A variety of problems are presented, from the standard classical mechanics problems, to context-rich problems and more challenging problems.

Key features:

    • Presents a theoretical outline for each chapter.

    • Motivates the students with standard mechanics problems with step-by-step explanations.

    • Challenges the students with more complex problems with detailed solutions.

    Author(s): Elina M. van Kempen, Carolina C. Ilie, Zachariah S. Schrecengost
    Edition: 1
    Publisher: CRC Press
    Year: 2022

    Language: English
    Pages: 264
    City: Boca Raton
    Tags: Classical Mechanics; Physics; Engineering; Applied Mathematics; Astronomy; Newton's Laws; Motion; Air Resistance; Conservation Laws; Oscillations; Lagrangian Formalisms; Hamiltonian Formalisms; Nonlinear Dynamics; Chaos; Special Relativity

    Cover
    Half Title
    Title Page
    Copyright Page
    Dedication
    Table of Contents
    Preface
    Acknowledgments
    About the Authors
    Illustrations
    Julia R. D’Rozario
    Chapter 1: Newton’s Laws
    1.1 Theory
    1.1.1 Vectors
    1.1.1.1 Space and Time
    1.1.1.2 Position, Velocity, and Acceleration
    1.1.1.3 Scalar (Dot) and Vector (Cross) Product
    1.1.1.4 Gradient
    1.1.1.5 Line Integral
    1.1.1.6 Surface Integral
    1.1.1.7 Volume Integral
    1.1.1.8 Kronecker Delta
    1.1.2 Coordinate Systems
    1.1.2.1 Cartesian Coordinates
    1.1.2.2 Cylindrical Polar Coordinates
    1.1.2.3 Spherical Polar Coordinates
    1.1.3 Newton’s Laws
    1.1.3.1 Newton’s First Law – The Law of Inertia
    1.1.3.2 Newton’s Second Law
    1.1.3.3 Newton’s Third Law (Action–Reaction)
    1.2 Problems and Solutions
    Chapter 2: Motion with Air Resistance
    2.1 Theory
    2.1.1 Drag Force of Air Resistance
    2.2 Problems and Solutions
    Chapter 3: Momentum and Angular Momentum
    3.1 Theory
    3.1.1 Linear Momentum
    3.1.2 Rockets
    3.1.3 Center of Mass
    3.1.4 Moment of Inertia
    3.1.5 Principle of Conservation of Angular Momentum
    3.1.6 Principle of Conservation of the Angular Momentum for a System of N Particles
    3.2 Problems and Solutions
    Chapter 4: Energy
    4.1 Theory
    4.1.1 Work Kinetic Energy Theorem
    4.1.2 Conservative Forces
    4.1.3 Obtaining the Equation of the Motion from the Conservation of the Energy
    4.2 Problems and Solutions
    Chapter 5: Oscillations
    5.1 Theory
    5.1.1 Hooke’s Law
    5.1.2 Simple Harmonic Motion
    5.1.3 Energy
    5.1.4 Particular Types of Oscillations and the Differential Equations Associated with Them
    5.1.4.1 Damped Oscillations
    5.1.4.2 Weak Damping β < ω0
    5.1.4.3 Critical Damping β = ω0
    5.1.4.4 Strong Damping β > ω0
    5.1.4.5 Driven Damped Oscillations
    5.2 Problems and Solutions
    Chapter 6: Lagrangian Formalism
    6.1 Theory
    6.1.1 The Lagrangian
    6.1.2 Hamilton’s Principle
    6.2 Problems and Solutions
    Chapter 7: Hamiltonian Formalism
    7.1 Theory
    7.1.1 The Hamiltonian
    7.1.2 Example – One-Dimensional Systems
    7.2 Problems and Solutions
    Chapter 8: Coupled Oscillators and Normal Modes
    8.1 Theory
    8.2 Problems and Solutions
    Chapter 9: Nonlinear Dynamics and Chaos
    9.1 Theory
    9.2 Problems and Solutions
    Chapter 10: Special Relativity
    10.1 Theory
    10.1.1 Galileo’s Transformations
    10.1.2 Postulates of the Theory of Relativity
    10.1.3 Lorentz Transformations
    10.1.4 Length Contraction, Time Dilation
    10.1.5 Composing Velocities
    10.1.6 Relativistic Dynamics
    10.1.7 Doppler Shift
    10.1.7.1 Redshift
    10.1.7.2 Blueshift
    10.2 Problems and Solutions
    Appendix: Differential Equations
    Separable Equations
    First-Order Equations with an Integrating Factor
    Second-Order Homogeneous Equations
    Bibliography
    Index