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9780387989730

Aip Physics Desk Reference

by ; ; ;
  • ISBN13:

    9780387989730

  • ISBN10:

    0387989730

  • Edition: 3rd
  • Format: Hardcover
  • Copyright: 2003-02-01
  • Publisher: Amer Inst of Physics

Note: Supplemental materials are not guaranteed with Rental or Used book purchases.

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Supplemental Materials

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Summary

This new edition of the AIP Physics Desk Reference has been thoroughly updated and modernized to reflect new developments in the decade since the publication of the second edition. Data, references, and bibliographies have been updated completely, and new chapters have been added on environmental physics, electricity and magnetism, elementary particle physics, fluid dynamics, nonlinear physics, particle accelerators, polymer physics, and quantum theory, as well as a concluding chapter on practical laboratory data. An indispensable tool for the researcher, professional, and student, the AIP Physics Desk Reference provides concise compilation of the most frequently used data and formulae in physics, astrophysics, and related fields. Book jacket.

Table of Contents

Preface to the Third Edition v
Preface to the First Edition vii
Contributors xxxi
Table of Fundamental Physical Constants
xxxv
Symbols, Units, and Nomenclature
1(21)
E. Richard Cohen
Physical Quantities
2(1)
Symbols for quantities
2(1)
Symbols for units
2(1)
Physical Units
3(1)
Base units
3(1)
Dimension
3(1)
The International System of Units (Systeme International, SI)
4(4)
Base units
4(2)
Conversion factors to SI units
6(2)
Recommended Symbols for Physical Quantities
8(12)
General physics
8(10)
Quantum mechanics
18(1)
Crystallography
18(1)
Nuclear and fundamental particles
19(1)
Nomenclature Conventions in Nuclear Physics
20(1)
Nuclide
20(1)
Characterization of interactions
20(1)
References
21(1)
Mathematical Basics
22(38)
E. Richard Cohen
Factorials
24(1)
Progression and Series
24(1)
Means
24(1)
Summation Formulas
25(1)
Binomial Theorem
25(1)
Quadratic Equation
25(1)
Differentiation
26(1)
Taylor series
26(1)
Integration
27(1)
Logarithmic functions
28(1)
Series
28(1)
Exponential Functions
28(1)
Derivatives
28(1)
Integrals
29(1)
Trigonometric Functions
29(3)
Series expansions
30(1)
Derivatives
30(1)
Integrals
30(1)
Plane triangles
31(1)
Spherical triangles
31(1)
Inverse Trigonometric Functions
32(1)
Series expansions
32(1)
Derivatives
32(1)
Integrals
32(1)
Hyperbolic Functions
33(2)
Series expansions
34(1)
Derivatives
34(1)
Integrals
34(1)
Inverse Hyperbolic Functions
35(1)
Series expansions
35(1)
Derivatives
35(1)
Integrals
36(1)
Gamma Function
36(2)
Definite integrals
37(1)
Delta Function
38(1)
Vector Algebra
39(4)
Notation
39(1)
Dot product (scalar product or inner product)
39(1)
Cross product (vector product or outer product)
39(1)
Vector identities
39(1)
Vector linear equations
40(1)
Differential operators
40(3)
Orthogonal Coordinate Systems
43(4)
Gradient of f, f
43(1)
Divergence of A, A
43(1)
Curl of A, x A
43(1)
Projected derivative, components of A B
44(1)
Divergence of a tensor T
45(1)
Scalar Laplacian 2 f
46(1)
Vector Laplacian 2 A
46(1)
Fourier Series and Fourier Transforms
47(1)
Orthogonality condition
47(1)
Completeness
48(1)
Convolution
48(1)
Laplace Transforms
48(8)
General properties
48(1)
Linearity
48(1)
Differentiation
48(1)
Bessel functions
49(4)
Spherical harmonics
53(1)
Potential at r1 due to a unit source at r2
53(2)
Clebsch-Gordan (Wigner) coefficients
55(1)
References
56(4)
Acoustics
60(33)
Robert T. Beyer
Important Acoustical Units
62(1)
Oscillations of a Linear System
63(2)
Analogies
65(1)
General Linear Acoustics; Wave Propagation in Fluids
65(7)
Plane waves
65(1)
Spherical waves
66(1)
Reflection and transmission
67(1)
Velocity and attenuation of sound
67(5)
High-Intensity Sound; Nonlinear Acoustics
72(3)
Lagrangian form of wave equation
72(1)
Solutions of Eulerian wave equation
73(1)
Burgers' equation and other approximations
74(1)
Radiation pressure
74(1)
Atmospheric Acoustics
75(1)
Velocity of sound in air
75(1)
Refraction in a fluid medium
75(1)
Attenuation in atmosphere
75(1)
Doppler effect
75(1)
Underwater Sound
76(1)
Acoustic Transmission in Solids
77(1)
Velocity in an extended polycrystalline solid
77(1)
Configurational dispersion in a solid rod
77(1)
Attenuation of sound in solids
77(1)
Molecular Acoustics; Relaxation Processes
78(2)
Propagation of sound
78(1)
Excess sound attenuation in liquids
79(1)
Ultrasonic propagation at very low temperatures
79(1)
Bubbles, Cavitation, Sonoluminescence
80(1)
Cavitation
80(1)
Sonoluminescence
81(1)
Nondestructive Testing, Ultrasonic Imaging
81(1)
Nondestructive testing
81(1)
Ultrasonic imaging
81(1)
Noise and Its Control
81(2)
Active suppression of noise
82(1)
Room and Architectural Acoustics
83(2)
Sabine's formula
83(1)
Practical architectural acoustics
83(2)
Physiological and Psychological Acoustics
85(3)
Loudness and loudness level
85(1)
Auditory sensation area
86(1)
Masking
86(1)
Temporary threshold shift (TTS)
86(1)
Pitch
87(1)
Binaural hearing
87(1)
Audiogram
87(1)
Speech Communication
88(1)
Bioacoustics
88(1)
Musical Acoustics
89(1)
Resonance frequencies for an organ pipe
89(1)
Resonance frequencies for a rectangular membrane
89(1)
Resonance frequencies for a circular membrane
89(1)
Acoustical Measurements and Instruments
89(2)
Absolute measurement of sound intensity
90(1)
Calibration of microphones
90(1)
Frequency measurement
90(1)
Acoustic filter
91(1)
References
91(2)
Astronomy
93(26)
Jay M. Pasachoff
Basic Data
94(1)
Solar Systems
95(5)
Stars and the Milky Way
100(12)
Time and Planetary Positions
112(7)
Astrophysics and Cosmology
119(26)
Virginia Trimble
Stellar Astronomy
120(7)
Stellar structure and evolution
120(1)
Stellar atmospheres
121(2)
Nuclear reactions, energy generation, and nucleosynthesis
123(4)
Binary Stars
127(1)
Significance
127(1)
Evolution of binary stars
128(1)
Star Clusters, Interstellar Medium, and The Milky Way
128(3)
Star clusters
128(2)
The galactic center
130(1)
The Milky Way: General properties
130(1)
Backgrounds
130(1)
Galaxies
131(5)
Types and their properties
131(2)
Dark matter
133(1)
Formation and evolution of galaxies
134(1)
Collective properties, clustering, and large-scale structure
135(1)
High-Energy Astrophysics
136(5)
Basic physical mechanisms
136(1)
Neutron stars and black holes as endpoints of stellar evolution
137(1)
Pulsars and x-ray binaries
137(1)
Supernovae
138(1)
Quasars and other active galaxies
139(1)
Gamma ray bursters
140(1)
Cosmology
141(3)
Evidence that the universe is expanding and experienced a Big Bang
141(1)
The Friedmann-Robertson-Walker metric
141(1)
Big-Bang nucleosynthesis
142(1)
``Best values'' of the parameters for a relativistic universe
143(1)
Connections with particle physics
144(1)
References
144(1)
Atomic and Molecular Collision Processes
145(97)
M. R. Flannery
Introduction
147(1)
Collisions
148(5)
Differential and integral cross sections
148(1)
Collision rates, collision frequency, and path length
149(1)
Energy and angular momentum: Center of mass and relative
150(1)
Elastic scattering
151(1)
Inelastic scattering
151(1)
Reactive scattering
151(1)
Center-of-mass to laboratory cross-section conversion
151(2)
General Collision Properties
153(10)
Momentum transfer
153(1)
Momentum transfer cross section
153(1)
Energy transfer
154(2)
Energy transfer cross sections
156(3)
Atomic units
159(1)
Energy conversion factors
159(1)
Rydberg properties
160(3)
Equilibrium Distributions
163(12)
Maxwell velocity distribution for free particles
163(1)
Two temperature Maxwell distributions
164(1)
Boltzmann distribution
165(2)
Classical statistical weights
167(4)
Association/dissociation equation
171(1)
Saha's ionization equations
171(2)
Macroscopic detailed balance
173(1)
Planck's equilibrium distribution
174(1)
Boltzmann equation
175(1)
Macroscopic Rate Coefficients
175(3)
Scattering rate
175(1)
Energy transfer rate
176(1)
Transport cross sections and collision integrals
177(1)
Quantal Transition Rates and Cross Sections
178(8)
Microscopic rate of transitions
178(1)
Detailed balance between rates
179(1)
Energy density of continuum states
180(1)
Inelastic cross sections
181(1)
Detailed balance between cross sections
182(1)
Examples of detailed balance
182(1)
Four useful expressions for the cross section
183(3)
Born Cross Sections
186(8)
Fermi golden rules
187(1)
Ion (electron)-atom collisions
188(1)
Atom-atom collisions
189(1)
Quantal and classical impulse cross sections
189(1)
Atomic form factor and generalized oscillator strength
190(1)
Form factors for atomic hydrogen
191(1)
Rotational excitation
192(1)
List of Born cross sections for model potentials
193(1)
Quantal Potential Scattering
194(8)
Partial wave expansion
195(1)
Scattering amplitudes
196(1)
Integral cross sections
197(1)
Differential cross sections
197(2)
Optical theorem
199(1)
Levinson's theorem
200(1)
Partial wave expansion for transport cross sections
200(1)
Born phase shifts
201(1)
Coulomb scattering
202(1)
Collisions between Identical Particles
202(4)
Fermion and Boson scattering
203(1)
Coulomb scattering of two identical particles
204(1)
Scattering of identical atoms
205(1)
Classical Potential Scattering
206(5)
Deflection functions
206(1)
Classical cross sections
207(2)
Orbiting cross sections
209(2)
Quantal Inelastic Heavy-Particle Collisions
211(8)
Adiabatic formulation (kinetic coupling scheme)
211(1)
Diabatic formulation (potential coupling scheme)
212(1)
Inelastic scattering by a central field
213(1)
Two-state treatment
214(1)
Exact resonance
215(2)
Partial wave analysis
217(1)
Close coupling equations for electron-atom (ion) collisions
217(2)
Semiclassical Inelastic Scattering
219(5)
Classical path theory
220(1)
Landau-Zener cross section
221(1)
Eikonal theories
221(3)
Long-Range Interactions
224(1)
Polarization, electrostatic, and dispersion interactions
224(1)
Radiative Processes
225(13)
Photon scattering by free and bound electrons
225(3)
Radiative emission rate
228(5)
Cross section for radiative recombination
233(1)
Radiative recombination rate
234(2)
Dielectronic recombination cross section
236(1)
Bremsstrahlung
236(1)
Bremsstrahlung cross section
237(1)
Dipole transition matrix elements
237(1)
Atomic and Molecular Databases
238(1)
General References
239(1)
References
240(2)
Atomic Spectroscopy
242(23)
Wolfgang L. Wiese
Introduction
243(1)
Photon Energies, Frequencies, and Wavelengths
243(2)
Photon energy
243(1)
Frequency, wavelength, wavenumber
244(1)
Spectral wavelength ranges
244(1)
Wavelengths in air
244(1)
Wavelength standards
244(1)
Energy conversion factors
245(1)
Atomic States, Atomic Shell Structure
245(1)
Quantum numbers
245(1)
Pauli exclusion principle, atomic shells
245(1)
The Hydrogen Spectrum
246(1)
Alkali Spectra
246(1)
Atomic States and Spectra for Many-Electron Atoms
247(3)
Typical features, general quantum designations
247(1)
Russell-Saunders or LS-coupling
247(1)
Customary notation, sample case
248(1)
Other coupling schemes
248(2)
Atomic Structure Hierarchies, Selection Rules for Discrete Transitions
250(2)
Atomic structure hierarchies
250(1)
Selection rules for discrete transitions
251(1)
Spectral Line Intensities, Atomic Transition Probabilities, f-Values, and Line Strengths
252(5)
Emission intensities
252(1)
Absorption intensities
252(1)
Line strengths
252(1)
Relationships among A, f, and S
253(1)
Relationships between spectral line and multiplet values
254(1)
Tabulations
254(3)
Atomic (Radiative) Lifetimes
257(1)
Scaling, Systematic Trends (Regularities), and Important Characteristics of Spectra
258(2)
Hydrogenic (one-electron) species
258(1)
Atoms and ions with two or more electrons
259(1)
Important characteristics of complex spectra
259(1)
Spectral Line Shapes, Widths, and Shifts
260(2)
Doppler broadening
260(1)
Pressure broadening
261(1)
Spectral Continuum Radiation
262(1)
Hydrogenic species
262(1)
Many-electron systems
263(1)
Sources of Spectroscopic Data
263(1)
References
263(2)
Biological Physics
265(41)
Elias Greenbaum
Victor Bloomfield
Introduction
267(1)
Intermolecular Forces
267(2)
Elementary electrostatic and dispersion interactions
267(1)
Force fields
268(1)
Interactions in water
268(1)
Ionic solutions and polyelectrolytes
269(1)
Nucleic Acids
269(3)
Structures of nucleic acid bases and nucleotides
269(2)
Energetics of bending and twisting
271(1)
Supercoiled DNA
271(1)
Proteins and Amino Acids
272(2)
Peptide bond and polypeptide conformations
273(1)
Helix-coil transition and protein folding
274(1)
Binding Thermodynamics
274(1)
Nuclear Magnetic Resonance
275(3)
Electron Paramagnetic Resonance
278(2)
Thermodynamics, Mitochrondria, and Chloroplasts
280(4)
Free-energy change of a chemical reaction
280(1)
Electrical and chemical work
281(1)
Ion gradients, active transport, and ATP synthesis
282(1)
Mitochondria
283(1)
Chloroplasts
284(1)
Signaling and Transport Across Cell Membranes
284(5)
Receptors
287(1)
Transporters
288(1)
Channels and pumps
288(1)
Electrophysiology
289(4)
Impulses in nerve and muscle cells
289(1)
Properties of nerve and muscle cells
289(2)
Axons: The cable model
291(1)
Models for membrane current density
291(2)
Photobiophysics
293(2)
Muscle and Contractility
295(2)
Characterizing Biopolymers in Solution
297(3)
Sedimentation and diffusion
297(1)
Sedimentation equilibrium
298(1)
Rotational motion
298(1)
Frictional coefficients
298(1)
Electrophoresis and gel electrophoresis
298(1)
Scattering
298(2)
Dynamic light scattering
300(1)
Biophysics, the Health Sciences, and Emerging Technology
300(4)
References
304(2)
General references
304(1)
On-line resources
304(1)
Specific references
304(2)
Crystallography
306(43)
George A. Jeffrey
Vicky Lynn Karen
Historical Sketch
307(2)
Crystal Data and Symmetry
309(7)
Crystal system, space group, lattice constants, and structure type
309(6)
Reduced cells
315(1)
Physical properties of crystals
316(1)
Crystal Diffraction
316(10)
Conditions for diffraction
316(3)
Single-crystal diffractometer
319(2)
Absorption
321(1)
X-ray absorption corrections
321(2)
Extinction
323(1)
Multiple reflections
323(1)
Diffraction by perfect crystals
324(1)
``Borrmann'' or ``anomalous transmission'' effect
324(1)
Kossel and Kikuchi lines
324(1)
Powder diffractometry
325(1)
Powder diffraction profile refinement: Rietveld method
326(1)
Structure Factor
326(6)
Atomic scattering factors fi (s)
326(2)
Dispersion corrections for x-ray atomic scattering factors
328(3)
Geometrical structure factor
331(1)
Unitary and normalized structure factors
332(1)
Thermal Motion
332(3)
Diffracting Density Function
335(1)
Phase Problem
336(1)
Phase-solving methods
336(1)
Patterson synthesis
337(1)
Direct methods
337(1)
Crystal Structure Refinement: Method of Least Squares
337(2)
References
339(4)
Appendix: Crystallographic Data Sources
343(6)
Introduction
343(1)
Categories, quality, and description
343(1)
Major sources of crystallographic data
344(5)
Earth, Ocean, and Atmosphere Physics
349(27)
Ferris Webster
Introduction
350(1)
Properties of Planet Earth
350(3)
Planetary dimensions and constants
350(1)
Ocean areas, volumes, and depths
351(2)
Ocean
353(10)
Seawater properties
353(6)
Air-sea interaction
359(1)
Tides
360(1)
Waves
361(1)
Geophysical fluid dynamics
362(1)
Atmosphere
363(7)
Principal atmospheric constituents
363(1)
Properties of moist air
363(1)
Properties of dry air
364(1)
U.S. Standard Atmosphere (1976)
365(5)
Global Climate
370(5)
Earth's radiation balance
370(1)
Global temperature trends
371(3)
Atmospheric CO2 concentrations
374(1)
References
375(1)
Electricity and Magnetism
376(26)
David J. Griffiths
Introduction
377(1)
Electrostatics
377(3)
Magnetostatics
380(2)
Electrodynamics
382(4)
Conservation Laws
386(1)
Electromagnetic Waves
387(3)
Radiation
390(3)
Relativistic Formulation
393(2)
Circuits
395(3)
Units
398(2)
References
400(2)
Elementary Particles
402(23)
H. Schellman
The Standard Model
403(5)
Fundamental fermions
403(1)
Electroweak couplings
404(1)
Electroweak Lagrangian
404(1)
Cabibbo-Kobayashi-Maskawa mixing matrix
405(1)
CP violation in the kaon system
406(1)
Neutrino masses and mixing
407(1)
Strong interactions
408(1)
Selected Particle Properties
408(2)
Kinematics
410(4)
Relativistic kinematics of reactions and decays
410(1)
Boost of a four-vector
411(1)
Decay length distribution
411(1)
Two-body decays
411(1)
Three-body decays
411(1)
Two-body reactions
412(1)
Mandelstam variables
412(1)
Transformations between the laboratory and the center of mass frames
413(1)
In specific frames
413(1)
Lepton scattering
413(1)
Inclusive particle production
414(1)
Decays and Cross Sections
414(4)
Lepton scattering
414(2)
e+e-- scattering
416(1)
Resonance production
416(1)
Hadron scattering
417(1)
Fragmentation
417(1)
Typical interaction cross sections
417(1)
Particle Detectors
418(6)
Cherenkov radiation
418(1)
Ionization energy loss
418(1)
Multiple scattering through small angles
419(1)
Charged particle trajectories
419(5)
Calorimetry
424(1)
References
424(1)
Fluid Dynamics
425(19)
Stavros Tavoularis
Introduction
426(1)
Properties of Common Fluids
427(2)
Mathematical Description
429(5)
Equations of motion
429(2)
Dimensionless parameters
431(2)
Some laminar solutions
433(1)
Instability, Transition, and Turbulence
434(1)
Hydrodynamic stability
434(1)
Transition
434(1)
Turbulence
435(1)
Friction and Drag
435(2)
Gas Dynamics
437(2)
Wave propagation in fluids
437(1)
One-dimensional, isentropic, compressible flow
437(1)
Shock waves
438(1)
Measurement in Fluids
439(2)
Bulk flow measurement
439(1)
Flow visualization
439(1)
Pressure measurement
439(1)
Velocity measurement
440(1)
Temperature measurement
440(1)
The fluid mechanics laboratory
441(1)
References
441(3)
Mechanics
444(23)
Florian Scheck
Introduction
445(1)
Newtonian Mechanics
445(5)
Newton's laws and inertial frames
445(2)
Kepler's laws for planetary motion
447(1)
Phase space and determinism
448(2)
Canonical Mechanics
450(5)
Lagrangian functions and Euler-Lagrange equations
450(1)
Hamiltonian systems
451(1)
Canonical transformations and Hamilton-Jacobi equation
452(2)
Action-angle variables, manifolds of motion
454(1)
Rigid Bodies
455(3)
The inertia tensor
455(2)
Euler's equations
457(1)
Spinning tops
458(1)
Relativistic Kinematics
458(6)
Lorentz transformations and decomposition theorem
459(1)
Causal orbits, energy, and momentum
460(1)
Time dilatation and scale contraction
461(1)
Motion of free particles in SRT and GRT
462(2)
Hamiltonian Dynamical Systems
464(1)
Long-term behavior of mechanical systems
464(1)
Deterministic chaos in Hamiltonian systems
465(1)
References
465(2)
Medical Physics
467(25)
William R. Hendee
Michael Yester
Introduction
469(1)
Imaging
469(1)
Ionizing Radiation: X- and γ-Rays
470(8)
Interaction of x- and γ-rays with tissue
470(2)
X-ray dosage
472(6)
X-ray image contrast
478(1)
Ionizing Radiation: Electrons
478(2)
Health Risks
480(1)
Ultrasound
480(1)
Magnetic Resonance
480(3)
Brachytherapy
483(4)
Nuclear Medicine
487(2)
References
489(3)
Molecular Spectroscopy and Structure
492(30)
Peter F. Bernath
Introduction
493(1)
Rotational Spectroscopy
493(9)
Diatomics
494(4)
Linear Molecules
498(1)
Symmetric tops
498(1)
Asymmetric tops
499(3)
Spherical tops
502(1)
Vibrational Spectroscopy
502(11)
Diatomics
503(4)
Linear molecules
507(2)
Symmetric tops
509(2)
Asymmetric tops
511(1)
Spherical tops
511(1)
Raman Spectroscopy
512(1)
Electronic Spectra
513(4)
Diatomics
514(3)
Polyatomics
517(1)
Structure Determination
517(3)
References
520(2)
Nonlinear Physics and Complexity
522(22)
Paul Manneville
Dynamical Systems and Bifurcations
523(6)
Preliminaries
523(2)
Tangent dynamics and center-manifold reduction
525(2)
Bifurcations
527(2)
Chaos and Fractals
529(7)
The nature of chaos
531(1)
Fractal properties and dimensions
532(2)
Routes to chaos
534(1)
Applied nonlinear dynamics
535(1)
Space-Time Dynamical Systems
536(6)
Classification of instabilities and the modeling issue
536(1)
Continuous approach to space-time behavior
537(2)
Discrete approach to space-time behavior
539(3)
References
542(2)
Nuclear Physics
544(24)
Kenneth S. Krane
Nuclear Properties
545(4)
Size and shape of nuclei
545(1)
Mass and binding energy
546(1)
Electromagnetic moments
546(2)
Isospin in nuclei
548(1)
Radioactive Decay
549(6)
Radioactive decay laws
549(1)
Alpha decay
550(1)
Beta decay
551(1)
Gamma decay
552(1)
Internal conversion
553(1)
Units for radioactivity
554(1)
Nuclear Models
555(4)
The shell model
555(1)
The deformed shell model
556(1)
The collective model
556(3)
Interaction of Nuclear Radiation with Matter
559(4)
Heavy charged particles
559(1)
Electrons
560(1)
Electromagnetic radiation
561(1)
Neutrons
562(1)
Nuclear Reactions
563(2)
Nonrelativistic kinematics
563(1)
Cross sections
564(1)
Compilations of nuclear data
565(1)
References
566(2)
Optics
568(29)
Joseph Reader
Reflection and Refraction
570(7)
Reflection
570(1)
Index of refraction
570(2)
Refraction at a plane surface
572(1)
Coefficients of reflectance and transmittance
572(1)
Reflectance and transmittance at normal incidence
573(1)
Brewster's angle of reflection
573(1)
Total internal reflection
574(1)
Beam displacement by a plane parallel plate
575(1)
Prisms
575(1)
Refraction at a spherical surface
576(1)
Absorption
577(1)
Internal transmittance and total transmittance
577(1)
Optical density
577(1)
Lenses
578(3)
Imaging by lenses
578(2)
Minimum focal distance
580(1)
Lens power and F-number
580(1)
Lens maker's formula
580(1)
Thin lenses in combination
580(1)
Ray tracing for lenses
581(1)
Mirrors
581(2)
Imaging by mirrors
581(2)
Ray tracing for mirrors
583(1)
Diffraction
583(3)
Diffraction by a single slit
583(1)
Diffraction at a circular aperture
584(1)
Resolving power of a telescope
584(1)
Resolving power of a microscope
585(1)
Interference
586(7)
Double slit intensity distribution
586(1)
Diffraction gratings
587(1)
Dispersion of a diffraction grating
588(1)
Resolving power of a diffraction grating
588(1)
Free spectral range
589(1)
Optimum slit width
589(1)
Grating blaze
589(1)
Rowland circle
589(1)
Michelson interferometer
589(1)
Fabry-Perot interferometer
590(3)
Spectra
593(3)
Important spectral lines
593(3)
Common laser wavelengths
596(1)
References
596(1)
Particle Accelerators and Storage Rings
597(28)
Kai Desler
Donald A. Edwards
Introduction
598(1)
Single-Particle Motion
598(17)
Linear transverse motion
599(5)
Longitudinal motion
604(2)
Transverse coupling
606(2)
Nonlinear effects
608(3)
Synchrotron radiation
611(4)
Multiparticle Dynamics
615(8)
Space charge
615(2)
Collective instabilities
617(2)
Beam cooling
619(3)
Luminosity
622(1)
References
623(2)
Plasma Physics
625(31)
David L. Book
Fundamental Plasma Parameters
626(3)
Frequencies
626(1)
Lengths
627(1)
Velocities
628(1)
Dimensionless
628(1)
Miscellaneous
628(1)
Plasma Dispersion Function
629(3)
Definition
629(2)
Differential equation
631(1)
Series expansions
631(1)
Symmetry properties
631(1)
Two-pole approximations
631(1)
Collisions and Transport
632(8)
Relaxation rates
632(2)
Temperature isotropization
634(1)
Thermal equilibration
634(1)
Coulomb logarithm
635(1)
Fokker--Planck equation
635(1)
B-G-K collision operator
636(1)
Transport coefficients
637(2)
Weakly ionized plasmas
639(1)
Solar and Ionospheric Physics
640(2)
Thermonuclear Fusion
642(2)
Basic data and relationships
642(1)
Fusion reactions
642(2)
Electron and Ion Beams
644(4)
Laser-Plasma Interactions
648(1)
System parameters
648(1)
Formulas
648(1)
Atomic Physics and Radiation
649(5)
Excitation and decay
650(1)
Ionization and recombination
650(1)
Ionization equilibrium models
651(1)
Radiation
652(2)
References
654(2)
Polymer Physics
656(37)
Stephen Z. D. Cheng
Introduction
658(1)
Polymer Molecules
658(1)
Molecular-Mass Averages
658(1)
kth moment of a molecular-mass distribution P(M)
658(1)
Molecular-mass averages
658(1)
Single-Chain Dimensions
659(1)
θ Solvents and Temperatures
660(2)
Molecular-Weight Characterization
662(2)
Solution viscosity
662(1)
Osmotic pressure π
662(1)
Ultracentrifugation
663(1)
Static light scattering
663(1)
Dynamic (quasielastic) light scattering
663(1)
Characterization by Spectroscopic Techniques
664(1)
Nuclear magnetic resonance
664(1)
Vibrational spectroscopy
664(1)
Crystal Structures
664(3)
Bond Lengths and Angles of Polymers
667(2)
Melting and Crystallization
669(1)
Variation of melting point of thin crystals with thickness
669(1)
Spherulitic growth rate controlled by secondary (surface) nucleation
669(1)
Avrami equation to describe overall kinetics of phase changes
670(1)
Liquid Crystalline Transitions
670(1)
Heat Capacity and Thermodynamic Functions
671(2)
Heat capacity in solid and liquid states of semicrystalline polymers
671(1)
General features of the heat capacity
672(1)
Residual entropies at absolute zero for glass polymers and other properties
673(1)
Glass Transition
673(2)
Thermal Expansion
675(1)
Optical Properties of Polymers
676(1)
Orientation birefringence Δn in amorphous polymers
676(1)
Stress optical coefficient C
676(1)
Form birefringence Δnf in two-phase systems
676(1)
Birefringence Δn of oriented crystalline polymers
676(1)
Birefringence of spherulites Δnsph
676(1)
Stress σij and Displacement uj at Crack Tips
677(1)
Internal Friction Peaks in Semicrystalline Polymers
678(1)
Representative Mechanical Properties of Some Common Structural Polymers
679(1)
Rheology
680(4)
Introduction
680(1)
Linear viscoelasticity
680(4)
Electrical Properties
684(1)
Dipole moments
684(1)
Typical electrical properties
684(1)
Diffusion and Permeation
685(1)
Diffusion into plane sheet
685(1)
Diffusion data
686(1)
Gas transmission
686(1)
Nonlinear Optical Properties
686(4)
References
690(3)
Quantum Theory
693(32)
M. P. Silverman
R. L. Mallett
Part I. Quantum Mechanics
694(1)
Basic Formalisms
694(1)
Operator Representations and Relationships
695(8)
Operator algebra
695(1)
Coordinate and linear momentum operators
695(2)
Angular momentum
697(4)
Hamiltonian
701(1)
Commutation and uncertainty relations
701(2)
Quantum Dynamics
703(3)
Time-displacement operator
703(1)
Single-particle wave equations
703(2)
Operator equations of motion
705(1)
Approximate Methods: Stationary States
706(5)
Perturbation theory (bound states)
706(2)
Variational Method
708(1)
Wentzel-Kramers-Brillouin (WKB) theory
708(2)
Scattering theory (stationary state)
710(1)
Time-Dependent Perturbation Theory
711(1)
First-order transitions
711(1)
Second-order transitions
711(1)
Fermi Golden Rule
711(1)
Density of states
712(1)
Exponential decay
712(1)
Radiation Theory
712(3)
Interaction Hamiltonian
712(1)
Absorption and emission
713(1)
Multipole transitions
713(1)
Sum rules
714(1)
Additional Links to Quantum Systems in other Chapters
715(1)
Coulomb potential
715(1)
Quantum rotator
715(1)
Anharmonic oscillator
715(1)
Part II. Quantum Field Theory
715(1)
Brief History
715(1)
Feynman Rules for Gauge Theories
715(6)
The S matrix
715(1)
Cross sections
716(1)
Decay rates
716(1)
Diagrammatic construction of amplitudes
716(4)
Fermion spin sums
720(1)
Polarization sums
721(1)
Contraction and trace relations
721(1)
Quantum Chromodynamics
721(1)
Standard Electroweak Model
722(2)
Coupling constants and fields
722(1)
Example: Elastic neutrino-electron scattering
723(1)
References
724(1)
Solid State Physics
725(31)
Costas M. Soukoulis
Eleftherios N. Economou
Introduction
727(1)
Classification of Solids According to Their Bonding Character
727(1)
Simple metals
727(1)
Transition and rare-earth metals
727(1)
Covalent solids
728(1)
Ionic solids
728(1)
Van der Waals solids
728(1)
Crystals with hydrogen bonding
728(1)
Approximations
728(1)
Electrons in Periodic Solids
729(5)
Bloch's theorem; reciprocal lattice; Brillouin zone
729(1)
Density of states
730(2)
Jellium model
732(2)
Methods for band-structure calculations
734(3)
General computational framework
734(2)
Linear combination of atomic orbitals
736(1)
Plane wave method
736(1)
Other methods
737(1)
Ionic vibrations
737(2)
Thermodynamic Quantities
739(2)
Linear Response to Perturbations
741(6)
Dielectric function and conductivity
741(3)
Temperature dependence of the DC conductivity
744(2)
Thermal conductivity and thermoelectric power
746(1)
Hall effect and magnetoresistance
746(1)
Cyclotron resonance, ESR, and NMR
747(1)
Disordered Systems
747(2)
Localization and metal-insulator transition
747(2)
Metal-insulator transition in 2D disordered systems
749(1)
Magnetism
749(2)
Superconductivity
751(2)
Elementary Excitations
753(1)
Excitons
753(1)
Polarons and bipolarons
753(1)
Spin waves
754(1)
Artificial Solid Structures and Photonic Crystals
754(1)
References
755(1)
Surfaces and Films
756(35)
Roland Resch
Bruce E. Koel
Introduction
757(1)
Surface Analysis: Probing Surfaces and Films
758(6)
Electron spectroscopy
758(1)
Ion spectroscopy
759(2)
Electron diffraction
761(1)
Field emission
762(1)
Electron microscopy
762(1)
Scanning probe microscopy
762(2)
Structure and Composition of Surfaces
764(3)
Thermodynamics of one-component surfaces
764(1)
Surface morphology, defects, and dislocations
765(1)
Surface lattices and superstructures
765(2)
Atomistic structure: relaxation and reconstruction
767(1)
Surfaces of compounds and metal alloys
767(1)
Electronic Structure at Surfaces
767(2)
The Gas-Solid Interface
769(5)
Solid-gas interactions
769(1)
Energy accommodation and adsorption
770(2)
Desorption
772(1)
Surface diffusion
772(1)
Chemical reactions at solid surfaces
773(1)
Solid-Liquid and Liquid-Liquid Interfaces
774(4)
Electrochemical processes and the double layer
774(2)
Solid-liquid interactions
776(1)
Solid-liquid reactions
777(1)
Film Formation and Structure
778(7)
Nucleation and growth modes
778(3)
Structure and properties of thin films
781(1)
Film growth from the gaseous phase
781(3)
Film growth from the liquid phase
784(1)
Film growth at the gas-liquid interface
785(1)
Mechanical Properties of Surfaces and Thin Films
785(3)
Friction
785(2)
Lubrication
787(1)
Wear
787(1)
Adhesion
787(1)
References
788(3)
Thermodynamics and Thermophysics
791(26)
J. P. Martin Trusler
William A. Wakeham
Introduction
792(1)
Classical Thermodynamics
792(9)
The laws of thermodynamics
792(3)
Consequences of the first and second laws
795(2)
Dependence of the thermodynamic properties on temperature, pressure, and composition
797(3)
Phase equilibria
800(1)
Chemical equilibria
801(1)
Statistical Thermodynamics
801(6)
Postulates of statistical thermodynamics
802(2)
The perfect gas
804(2)
Real gases
806(1)
Transport Properties
807(5)
Fluxes and gradients
807(2)
Definitions of transport coefficients
809(1)
Measurement of transport properties
810(2)
Kinetic Theory
812(4)
The Boltzmann equation
812(1)
The transport properties
813(1)
Monatomic gases
814(1)
Dense fluids
815(1)
References
816(1)
Practical Laboratory Data
817(28)
David R. Lide
Introduction
817(2)
Table: Periodic Table
819(1)
Table: Physical Constants of Elements and Compounds
820(6)
Table: Thermal and Electrical Properties of Metals
826(2)
Table: Dielectric Constant (Relative Permittivity) of Liquids
828(2)
Table: Viscosity of Liquids and Gases
830(1)
Table: Vapor Pressure of the Elements and Selected Compounds
831(4)
Table: Vapor Pressure of Cryogenic Fluids
835(1)
Table: Aqueous Solubility of Solids and Liquids
836(2)
Table: Solubility of Gases in Water
838(1)
Table: Properties of Miscellaneous Solid Materials
838(2)
Table: Densities Known to High Accuracy
840(1)
Fixed Points on the International Temperature Scale of 1990
841(1)
Table: Properties of Liquid Helium
842(1)
Table: Properties of Water and Ice
843(1)
Table: Vapor Pressure of Water on the ITS-90 Temperature Scale
843(2)
Index 845

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