This
note covers the following topics: introduction to vibrations and waves: simple
harmonic motion, harmonically driven damped harmonic oscillator, coupled
oscillators, driven coupled oscillators, the wave equation, solutions to the
wave equation, boundary conditions applied to pulses and waves, wave equation
in 2D and 3D, time-independent fourier analysis, fourier analysis with
traveling waves, dispersion, electromagnetic wave equation, plane polarized EM
waves, dipole radiation, EM waves meet conductors, transmission lines , EM
waves meet dielectrics, interference, interference from multiple sources,
diffraction, diffraction + interference, diffraction gratings.
Author(s):Prof.
Nergis Mavalvala and Prof. Thomas Greytak
This note explains the following topics: Modeling, Linearization,
Free Undamped Vibration, Measurement and Design Consideration, Forced Undamped
Vibration, Force Damped Vibration, Free Undamped Vibration, Response to Free
Undamped Vibration, Design for Vibration Suppression or Absorbers, Vibration
Testing.
Author(s): Dr Nopdanai Ajavakom and Dr Chanat
Ratanasumawong
This note explains the
physics of waves and oscillations including sound, elastic and electromagnetic
waves. Topics covered includes: the theory of simple harmonic oscillators,
transverse modes of a continuous string, and physical optics including
interference, Fresnel and Fraunhofer diffraction, and resolution, to diffraction
of X-rays and electrons by crystals.
This bookeExamines
and explains vibrations, resonance, free waves, and bounded waves. Includes a
glossary, index, photo credits, and useful data page. This book is part of the
Light and Matter series of introductory physics textbooks.
The aim of this
textbook is to develop a unified mathematical theory of oscillations and waves.
Examples are drawn from the physics of discrete mechanical systems; continuous
gases, fluids, and elastic solids; electronic circuits; electromagnetic waves;
optical systems; and, finally, quantum mechanical systems.