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9780521834902

Multiple Scattering of Light by Particles: Radiative Transfer and Coherent Backscattering

by
  • ISBN13:

    9780521834902

  • ISBN10:

    0521834902

  • Format: Hardcover
  • Copyright: 2006-05-08
  • Publisher: Cambridge University Press

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Summary

This volume provides a thorough and up-to-date treatment of multiple scattering of light and other electromagnetic radiation in media composed of randomly and sparsely positioned particles. It systematically and consistently presents radiative transfer theory as a branch of classical macroscopic electromagnetics. After tracing the fundamental link between radiative transfer theory and the effect of coherent backscattering, the authors explain them in the context of a comprehensive hierarchy of electromagnetic scattering problems. Dedicated sections present a thorough discussion of the physical meaning and range of applicability of the radiative transfer equation and compare the self-consistent microphysical and the traditional phenomenological approaches to radiative transfer. This self-contained book will be valuable for science professionals, engineers, and graduate students working across a wide range of disciplines including optics, electromagnetics, remote sensing, atmospheric radiation, astrophysics, and biomedicine.

Table of Contents

Preface xi
Dedication and acknowledgments xv
Introduction
1(19)
Electromagnetic scattering by a fixed finite object
1(4)
Actual observables
5(1)
Foldy--Lax equations
6(1)
Dynamic and static scattering by random groups of particles
7(2)
Ergodicity
9(1)
Single scattering by random particles
10(2)
Multiple scattering by a large random group of particles
12(2)
Coherent backscattering
14(2)
Classification of electromagnetic scattering problems
16(2)
Notes and further reading
18(2)
Maxwell equations, electromagnetic waves, and Stokes parameters
20(46)
Maxwell equations and constitutive relations
20(3)
Boundary conditions
23(3)
Time-harmonic fields
26(2)
The Poynting vector
28(3)
Plane-wave solution
31(6)
Coherency matrix and Stokes parameters
37(4)
Ellipsometric interpretation of the Stokes parameters
41(6)
Rotation transformation rule for the Stokes parameters
47(1)
Quasi-monochromatic light
48(6)
Measurement of the Stokes parameters
54(4)
Spherical-wave solution
58(4)
Coherency dyad of the electric field
62(2)
Historical notes and further reading
64(2)
Basic theory of electromagnetic scattering
66(49)
Volume integral equation and Lippmann-Schwinger equation
67(4)
Scattering in the far-field zone
71(7)
Scattering dyadic and amplitude scattering matrix
78(2)
Reciprocity
80(4)
Scale invariance rule
84(3)
Electromagnetic power and electromagnetic energy density
87(6)
Phase matrix
93(6)
Extinction matrix
99(3)
Extinction, scattering, and absorption cross sections
102(3)
Coherency dyad of the total electric field
105(4)
Other types of illumination
109(1)
Variable scatterers
110(2)
Thermal emission
112(2)
Historical notes and further reading
114(1)
Scattering by a fixed multi-particle group
115(8)
Vector form of the Foldy--Lax equations
115(3)
Far-field version of the vector Foldy--Lax equations
118(5)
Statistical averaging
123(8)
Statistical averages
124(2)
Configurational averaging
126(1)
Averaging over particle states
126(5)
Scattering by a single random particle
131(9)
Scattering in the far-field zone of the trap volume
131(5)
``Near-field'' scattering
136(4)
Single scattering by a small random particle group
140(25)
Single-scattering approximation for a fixed group of particles
141(1)
Far-field single-scattering approximation for a fixed particle group
142(3)
Far-field uncorrelated single-scattering approximation and modified uncorrelated single-scattering approximation
145(2)
Forward-scattering interference
147(4)
Energy conservation
151(1)
Conditions of validity of the far-field modified uncorrelated single-scattering approximation
151(7)
First-order-scattering approximation
158(5)
Discussion
163(2)
Radiative transfer equation
165(62)
The Twersky approximation
166(5)
The Twersky expansion of the coherent field
171(2)
Coherent field
173(7)
Transfer equation for the coherent field
180(1)
Dyadic correlation function in the ladder approximation
181(10)
Integral equation for the ladder specific coherency dyadic
191(4)
Integro-differential equation for the diffuse specific coherency dyadic
195(2)
Integral and integro-differential equations for the diffuse specific coherency matrix
197(1)
Integral and integro-differential equations for the diffuse specific coherency column vector
198(1)
Integral and integro-differential equations for the specific intensity column vector
199(1)
Summary of assumptions and approximations
200(3)
Physical meaning of the diffuse specific intensity column vector and the coherent Stokes column vector
203(5)
Energy conservation
208(1)
External observation points
209(8)
Coherent field
210(1)
Ladder coherency dyadic
211(2)
Specific intensity column vector
213(1)
Discussion
214(2)
Illustrative example: first-order scattering
216(1)
Other types of illumination
217(1)
Phenomenological approach to radiative transfer
218(6)
Scattering media with thermal emission
224(1)
Historical notes and further reading
225(2)
Calculations and measurements of single-particle characteristics
227(13)
Exact theoretical techniques
227(7)
Approximations
234(3)
Measurement techniques
237(2)
Further reading
239(1)
Radiative transfer in plane-parallel scattering media
240(21)
The standard problem
240(3)
The propagator
243(2)
The general problem
245(2)
Adding equations
247(8)
Invariant imbedding equations
255(3)
Ambarzumian equation
258(1)
Reciprocity relations for the reflection and transmission matrices
259(1)
Notes and further reading
260(1)
Macroscopically isotropic and mirror-symmetric scattering media
261(41)
Symmetries of the Stokes scattering matrix
262(3)
Macroscopically isotropic and mirror-symmetric scattering medium
265(1)
Phase matrix
266(4)
Forward-scattering direction and extinction matrix
270(3)
Backward scattering
273(2)
Scattering cross section and asymmetry parameter
275(1)
Thermal emission
276(1)
Spherically symmetric particles
277(1)
Effects of nonsphericity and orientation
278(1)
Normalized scattering and phase matrices
279(3)
Expansion in generalized spherical functions
282(4)
Circular-polarization representation
286(5)
Illustrative examples
291(11)
Radiative transfer in plane-parallel, macroscopically isotropic and mirror-symmetric scattering media
302(22)
The standard problem
302(2)
The general problem
304(2)
Adding equations
306(5)
Invariant imbedding and Ambarzumian equations
311(2)
Successive orders of scattering
313(2)
Symmetry relations
315(3)
Phase matrix
315(1)
Reflection and transmission matrices
316(1)
Matrices describing the internal field
317(1)
Perpendicular directions
317(1)
Fourier decomposition
318(3)
Fourier decomposition of the VRTE
318(1)
Fourier components of the phase matrix
319(2)
Scalar approximation
321(1)
Notes and further reading
322(2)
Illustrative applications of radiative transfer theory
324(41)
Accuracy of the scalar approximation
324(23)
Rayleigh-scattering slabs
325(12)
Polydisperse spherical particles and spheroids
337(10)
Directional reflectance and spherical and plane albedos
347(10)
Polarization as an effect and as a particle characterization tool
357(5)
Depolarization
362(1)
Further reading
362(3)
Coherent backscattering
365(42)
Specific coherency dyadic
366(5)
Reflected light
371(2)
Exact backscattering direction
373(6)
Other types of illumination
379(1)
Photometric and polarimetric characteristics of coherent backscattering
380(6)
Unpolarized incident light
380(1)
Linearly polarized incident light
381(1)
Circularly polarized incident light
382(1)
General properties of the enhancement factors and polarization ratios
383(2)
Spherically symmetric particles
385(1)
Benchmark results for Rayleigh scattering
386(1)
Numerical results for polydisperse spheres and polydisperse, randomly oriented spheroids
386(9)
Angular profile of coherent backscattering
395(7)
Further discussion of theoretical and practical aspects of coherent backscattering
402(2)
Applications and further reading
404(3)
Appendix A Dyads and dyadics
407(2)
Appendix B Spherical wave expansion of a plane wave in the far-field zone
409(2)
Appendix C Euler rotation angles
411(2)
Appendix D Integration quadrature formulas
413(3)
Appendix E Stationary phase evaluation of a double integral
416(2)
Appendix F Wigner functions, Jacobi polynomials, and generalized spherical functions
418(11)
Wigner d-functions
418(4)
Jacobi polynomials
422(1)
Orthogonality and completeness
422(1)
Recurrence relations
423(1)
Legendre polynomials and associated Legendre functions
424(1)
Generalized spherical functions
425(1)
Wigner D-functions, addition theorem, and unitarity
426(2)
Further reading
428(1)
Appendix G Systeme International units
429(2)
Appendix H Abbreviations
431(2)
Appendix I Glossary of symbols
433(9)
References 442(27)
Index 469

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