This book covers the following
topics: Scaling and estimation, Velocity and relative motion, Acceleration and
free fall, Force and motion, Analysis of forces, Newton's laws in three
dimensions, Vectors, Vectors and motion, Circular motion, Gravity, Conservation
of energy, Simplifying the energy zoo, Work: the transfer of mechanical energy,
Conservation of momentum, Conservation of angular momentum, Thermodynamics,
Vibrations, Resonance, Free waves, Electricity and circuits, non mechanical
universe, relativity and magnetism, Electromagnetism, General relativity, The
ray model of light, Images by reflection, Images, quantitatively, Refraction,
Wave optics and Rules of randomness.
This book shows how the existing technology of material
characterization can contribute to science and applied technology. The
authors who contributed with this book sought to show the importance of
applying the existing techniques in the development of their works.
This lecture note covers following topics: Nature of Light,
Geometrical Optics, Optical Instrumentation, Dispersion, Prisms, and
Aberrations, Wave Equations, EM Waves, Polarization, Fresnel Equations,
Production of Polarized Light, Superposition of Waves Interference of Light,
Coherence, Fraunhofer Diffraction, Fourier Optics, Characteristics of Laser
Beams, Optics of the Eye.
This lecture note explains following topics: Basics of optics, Laws
of Reflection and Refraction, Reflection from spherical mirrors, Velocity of
image, Refraction at Plane Surfaces, Prism Theory, Defects of images, Refraction
from curved surfaces.
This lecture note is intended to provide theoretical background to
understand and predict a host of optical phenomena that become possible when
nonlinearity in the optical response of a material is included in the
description. It includes a detailed description of several of these phenomena,
their experimental observation and photonic devices based on them.
This book covers the
following topics: Waves and Photons, The Physics of Waves,The Huygens-Fresnel
Principle, Diffraction, Maxwell's Equations, Polarisation, Fermats Principle,
Spherical Lenses and Mirrors, Crystal Symmetry and Optical Instruments.
This note describes the following topics: Linear systems and the
Fourier transform in optics, Properties of Light, Geometrical Optics, Wave
Optics, Fourier Optics, Spatial and Temporal Field Correlations, Low-coherence
Interferometry, Optical Coherence Tomography, Polarization, Waveplates,
Electro-optics and Acousto-optics.
The main goal of this note is to introduce engineers to the characteristics
of light that can be used to accomplish a variety of engineering tasks
especially in mechanical analysis at macro and micro scales. Topics covered
includes: Geometric Optics and Electromagnetic wave Theory Introduction to Light
sources and photodetectors Geometric Moire: In-plane displacement measurement
and out of plane displacement measurement, Geometric Moire, Moire Interferometry:
Interference and Diffraction, Grating fabrication, Moire Interferometry:
Holographic and Laser Speckle, Interferometry, Photoelasticity: theory,
techniques and Multilayer structure: waveguide, filters, Introduction to fiber
optic and waveguide delivery and detection, Periodic structure sensors.