The physics of vibrations and waves
The main theme of this highly successful book is that the transmission of energy by wave propogation is fundamental to almost every branch of physics. Therefore, besides giving students a thorough grounding in the theory of waves and vibrations, the book also demonstrates the pattern and unity of a large part of physics.
This new edition has been thoroughly revised and has been redeisgned to meet the best contemporary standards. It includes new material on electron waves in solids using the Kronig-Penney model to show how their allowed energies are limited to Brillouin zones, The role of phonons is also discussed. An Optical Transform is used to demonstrate the modern method of lens testing. In the last two chapters the sections on chaos and solitons have been reduced but their essential contents remain.
As with earlier editions, the book has a large number of problems together with hints on how to solve them. The Physics of Vibrations and Waves, 6th Edition will prove invaluable for students taking a first full course in the subject across a variety of disciplines particularly physics, engineering and mathematics.
11 pages matching phonon in this book
Results 1-3 of 11
What people are saying - Write a review
We haven't found any reviews in the usual places.
Simple Harmonic Motion
Equal Amplitude a and Equal Successive Phase Difference d
Damped Simple Harmonic Motion
15 other sections not shown
Other editions - View all
acoustic amplitude angle angular aperture atom axis beam behaviour boundary conditions capacitance Chapter characteristic impedance circuit coefficient conductor constant cosine crystal curve damped defines density dielectric diffraction pattern dimensions direction displacement distance electric field electromagnetic wave electron energy levels equal equation of motion exponential expression force Fourier transform fringes given gives group velocity incident infinite intensity interference length lens linear longitudinal waves magnetic mass maximum medium negative non-linear normal modes optical particle phase difference phase space phonon plane positive potential energy Problem pulse radiation ratio reflected refractive index resonance result separation shown in Figure simple harmonic motion simple harmonic oscillator sin2 sine slit soliton solution sound waves standing wave string superposition surface term total energy trajectories transmission line transmitted transverse waves unit vector vibration voltage wave equation wave function wave number wavefront wavelength width zero