Book description
Dealing with vibrations and waves, this text aims to provide understanding of the basic principles and methods of analysing various physical phenomena.
The content includes the general properties of propagation, a detailed study of mechanical (elastic and acoustic) and electromagnetic waves, propagation, attenuation, dispersion, reflection, interference and diffraction of waves.
It features chapters on the effect of motion of sources and observers (both classical and relativistic), emission of electromagnetic waves, standing and guided waves and a final chapter on de Broglie waves constitutes an introduction to quantum mechanics.
Table of contents
 Coverpage
 Titlepage
 Copyright
 Table of Contents
 Preface

Chapter 1. Free Oscillations
 1.1. Oscillations and waves, period and frequency
 1.2. Simple harmonic vibrations: differential equation and linearity
 1.3. Complex representation and phasor representation
 1.4. Point mass subject to a force–Kx
 1.5. Angular oscillations
 1.6. Damped oscillations
 1.7. Dissipation of the energy of a damped oscillator
 1.8. Oscillating LCR circuits
 1.9. Small oscillations of a system with one degree of freedom
 1.10. Nonlinear oscillators
 1.11. Systems with two degrees of freedom
 1.12. Generalization to systems with n degrees of freedom
 1.13. Normal variables for systems with n degrees of freedom*
 1.14. Summary
 1.15. Problem solving suggestions
 1.16. Conceptual questions
 1.17. Problems

Chapter 2. Superposition of Harmonic Oscillations, Fourier Analysis
 2.1. Superposition of two scalar and isochronous simple harmonic oscillations
 2.2. Superposition of two perpendicular and isochronous vector oscillations, polarization
 2.3. Superposition of two perpendicular and nonisochronous oscillations
 2.4. Superposition of scalar nonsynchronous harmonic oscillations, beats
 2.5. Fourier analysis of a periodic function
 2.6. Fourier analysis of a nonperiodic function
 2.7. Fourier analysis of a signal, uncertainty relation
 2.8. Dirac deltafunction
 2.9. Summary
 2.10. Problem solving suggestions
 2.11. Conceptual questions
 2.12. Problems

Chapter 3. Forced Oscillations
 3.1. Transient regime and steady regime
 3.2. Case of a simple harmonic excitation force
 3.3. Resonance
 3.4. Impedance and energy of a forced oscillator in the steady regime
 3.5. Complex impedance
 3.6. Sustained electromagnetic oscillations
 3.7. Excitation from a state of equilibrium*
 3.8. Response to an arbitrary force, nonlinear systems*
 3.9. Excitation of a system of coupled oscillators*
 3.10. Generalization of the concepts of external force and impedance*
 3.11. Some applications
 3.12. Summary
 3.13. Problem solving suggestions
 3.14. Conceptual questions
 3.15. Problems

Chapter 4. Propagation in Infinite Media
 4.1. Propagation of onedimensional waves
 4.2. Propagation of two and threedimensional waves
 4.3. Propagation of a vector wave
 4.4. Polarization of a transverse vector wave
 4.5. Monochromatic wave, wave vector and wavelength
 4.6. Dispersion
 4.7. Group velocity
 4.8. Fourier analysis for waves*
 4.9. Modulation*
 4.10. Energy of waves
 4.11. Other unattenuated wave equations, conserved quantities*
 4.12. Impedance of a medium*
 4.13. Attenuated waves
 4.14. Sources and observers in motion, the Doppler effect and shock waves
 4.15. Summary
 4.16. Problem solving suggestions
 4.17. Conceptual questions
 4.18. Problems

Chapter 5. Mechanical Waves
 5.1. Transverse waves on a taut string
 5.2. Strain and stress in elastic solids
 5.3. Elastic waves in massive springs and rods
 5.4. Propagation of sound in a pipe
 5.5. Transverse waves on elastic membranes
 5.6. Mechanical waves in three dimensions
 5.7. Energy of mechanical waves
 5.8. Progressive waves, impedance and intensity
 5.9. Elements of physiological acoustics
 5.10. Infrasounds and ultrasounds
 5.11. Surface waves*
 5.12. Summary
 5.13. Problem solving suggestions
 5.14. Conceptual questions
 5.15. Problems

Chapter 6. Electromagnetic Waves
 6.1. Principal results of the electromagnetic theory
 6.2. The propagation equations of the fields in vacuum and infinite dielectrics
 6.3. Electromagnetic simple harmonic plane waves
 6.4. Energy density and the Poynting vector
 6.5. Polarization of electromagnetic waves
 6.6. Momentum density and angular momentum density, radiation pressure*
 6.7. Electromagnetic waves in plasmas*
 6.8. Electromagnetic waves in Ohmic conductors*
 6.9. Quantization of electromagnetic radiation
 6.10. Electromagnetic spectrum
 6.11. Emission of electromagnetic radiations
 6.12. Spontaneous emission and stimulated emission
 6.13. Summary
 6.14. Problem solving suggestions
 6.15. Conceptual questions
 6.16. Problems

Chapter 7. Reflection and Refraction of Waves
 7.1. Reflection of an elastic wave on two joined strings
 7.2. Reflection and transmission of a onedimensional acoustic wave
 7.3. General laws of reflection and transmission of threedimensional waves
 7.4. Reflection and refraction of a threedimensional acoustic wave
 7.5. Reflection and refraction of an electromagnetic wave at the interface of dielectrics
 7.6. Case of attenuated waves in the second medium*
 7.7. Summary
 7.8. Problem solving suggestions
 7.9. Conceptual questions
 7.10. Problems

Chapter 8. Interference and Diffraction
 8.1. Order and fringes of interference of two waves
 8.2. Intensity and contrast
 8.3. Interference of light waves, Young’s experiment
 8.4. Multiwave interference, conditions for interference
 8.5. Holography
 8.6. Thin film interference
 8.7. The HuygensFresnel principle and diffraction by an aperture
 8.8. Diffraction grating
 8.9. Diffraction of Xrays
 8.10. Summary
 8.11. Problem solving suggestions
 8.12. Conceptual questions
 8.13. Problems

Chapter 9. Standing Waves and Guided Waves
 9.1. Onedimensional standing waves
 9.2. Standing waves on a membrane and in a rectangular cavity
 9.3. Fourier analysis of standing waves*
 9.4. Resonance and standing waves
 9.5. Sound wave guided by two parallel plates
 9.6. Guided sound waves in a rectangular pipe
 9.7. Transmission lines
 9.8. Electromagnetic waveguides*
 9.9. Waveguides formed by two plane and parallel plates*
 9.10. Guided electromagnetic waves in a hollow conductor*
 9.11. Applications of waveguides
 9.12. Summary
 9.13. Problem solving suggestions
 9.14. Conceptual questions
 9.15. Problems
 Answers to the Problems
 Appendices
 Further Reading
 Index
Product information
 Title: Mechanical and Electromagnetic Vibrations and Waves
 Author(s):
 Release date: January 2012
 Publisher(s): WileyISTE
 ISBN: 9781848212831
You might also like
book
TCP/IP Guide
The TCP/IP Guide is both an encyclopedic and comprehensible guide to the TCP/IP protocol suite that …
book
Microservices Patterns
Microservices Patterns teaches you how to develop and deploy productionquality microservicesbased applications. This invaluable set of …
book
Electromagnetism: Maxwell Equations, Wave Propagation and Emission
This book deals with electromagnetic theory and its applications at the level of a seniorlevel undergraduate …
book
Docker in Action, Second Edition
Docker in Action, Second Edition teaches you to create, deploy, and manage applications hosted in Docker …