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Summary
Summary
Originally published by the American Institute of Physics as the Physics Vade Mecum, this third edition has been completely updated to reflect contemporary modern physics. It is a concise compilation of the most frequently used physics data and formulae with their derivations, and this edition contains six new chapters, with outdated chapters dropped, and new chapters added on atmospheric physics, electricity and magnetism, elementary particle physics, fluid dynamics, geophysics, nonlinear physics, particle accelerators, polymer physics, and quantum theory. A new, final chapter deals with practical laboratory data, while the references and bibliographies have been updated. The book should prove a valuable tool for researchers, professionals and students in physics as well as others who use physics data.
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Choice Review
This comprehensive, logical aggregation of data should prove valuable for physicists, chemists, and biologists. It is made up of 27 separately authored, alphabetically arranged chapters, each with its own table of contents, list of tables and figures, and references. A general table of contents enables readers to locate a needed chapter quickly, and an extensive 44-page index helps find all but the most esoteric data. Though each chapter contains many data tables and figures, the last chapter ("Practical Laboratory Data") supplies chemical and molecular data that will prove as beneficial to chemists as to physicists. Tables and figures have careful titles and thorough descriptions. Besides its tables, figures, and equations, the book provides ample text to orient readers, but it is not a textbook and does not attempt lucid descriptions or step-by-step explanations of equation derivations or theory origins. Authors provide enough references to enable users to locate additional information when needed. ^BSumming Up: Recommended. Upper-division undergraduates and higher. G. D. Goessman University of Nebraska at Omaha
Table of Contents
Preface to the Third Edition | p. v |
Preface to the First Edition | p. vii |
Contributors | p. xxxi |
Table of Fundamental Physical Constants | p. xxxv |
1. Symbols, Units, and Nomenclature | p. 1 |
1.1 Physical Quantities | p. 2 |
1.2 Physical Units | p. 3 |
1.3 The International System of Units (Systeme International, SI) | p. 4 |
1.4 Recommended Symbols for Physical Quantities | p. 8 |
1.5 Nomenclature Conventions in Nuclear Physics | p. 20 |
1.6 References | p. 21 |
2. Mathematical Basics | p. 22 |
2.1 Factorials | p. 24 |
2.2 Progression and Series | p. 24 |
2.3 Means | p. 24 |
2.4 Summation Formulas | p. 25 |
2.5 Binomial Theorem | p. 25 |
2.6 Quadratic Equation | p. 25 |
2.7 Differentiation | p. 26 |
2.8 Integration | p. 27 |
2.9 Logarithmic functions | p. 28 |
2.10 Exponential Functions | p. 28 |
2.11 Trigonometric Functions | p. 29 |
2.12 Inverse Trigonometric Functions | p. 32 |
2.13 Hyperbolic Functions | p. 33 |
2.14 Inverse Hyperbolic Functions | p. 35 |
2.15 Gamma Function | p. 36 |
2.16 Delta Function | p. 38 |
2.17 Vector Algebra | p. 39 |
2.18 Orthogonal Coordinate Systems | p. 43 |
2.19 Fourier Series and Fourier Transforms | p. 47 |
2.20 Laplace Transforms | p. 48 |
2.21 References | p. 56 |
3. Acoustics | p. 60 |
3.1 Important Acoustical Units | p. 62 |
3.2 Oscillations of a Linear System | p. 63 |
3.3 General Linear Acoustics; Wave Propagation in Fluids | p. 65 |
3.4 High-Intensity Sound; Nonlinear Acoustics | p. 72 |
3.5 Atmospheric Acoustics | p. 75 |
3.6 Underwater Sound | p. 76 |
3.7 Acoustic Transmission in Solids | p. 77 |
3.8 Molecular Acoustics; Relaxation Processes | p. 78 |
3.9 Bubbles, Cavitation, Sonoluminescence | p. 80 |
3.10 Nondestructive Testing, Ultrasonic Imaging | p. 81 |
3.11 Noise and Its Control | p. 81 |
3.12 Room and Architectural Acoustics | p. 83 |
3.13 Physiological and Psychological Acoustics | p. 85 |
3.14 Speech Communication | p. 88 |
3.15 Bioacoustics | p. 88 |
3.16 Musical Acoustics | p. 89 |
3.17 Acoustical Measurements and Instruments | p. 89 |
3.18 References | p. 91 |
4. Astronomy | p. 93 |
4.1 Basic Data | p. 94 |
4.2 Solar Systems | p. 95 |
4.3 Stars and the Milky Way | p. 100 |
4.4 Time and Planetary Positions | p. 112 |
5. Astrophysics and Cosmology | p. 119 |
5.1 Stellar Astronomy | p. 120 |
5.2 Binary Stars | p. 127 |
5.3 Star Clusters, Interstellar Medium, and The Milky Way | p. 128 |
5.4 Galaxies | p. 131 |
5.5 High-Energy Astrophysics | p. 136 |
5.6 Cosmology | p. 141 |
5.7 References | p. 144 |
6. Atomic and Molecular Collision Processes | p. 145 |
6.1 Introduction | p. 147 |
6.2 Collisions | p. 148 |
6.3 General Collision Properties | p. 153 |
6.4 Equilibrium Distributions | p. 163 |
6.5 Macroscopic Rate Coefficients | p. 175 |
6.6 Quantal Transition Rates and Cross Sections | p. 178 |
6.7 Born Cross Sections | p. 186 |
6.8 Quantal Potential Scattering | p. 194 |
6.9 Collisions between Identical Particles | p. 202 |
6.10 Classical Potential Scattering | p. 206 |
6.11 Quantal Inelastic Heavy-Particle Collisions | p. 211 |
6.12 Semiclassical Inelastic Scattering | p. 219 |
6.13 Long-Range Interactions | p. 224 |
6.14 Radiative Processes | p. 225 |
6.15 Atomic and Molecular Databases | p. 238 |
6.16 General References | p. 239 |
6.17 References | p. 240 |
7. Atomic Spectroscopy | p. 242 |
7.1 Introduction | p. 243 |
7.2 Photon Energies, Frequencies, and Wavelengths | p. 243 |
7.3 Atomic States, Atomic Shell Structure | p. 245 |
7.4 The Hydrogen Spectrum | p. 246 |
7.5 Alkali Spectra | p. 246 |
7.6 Atomic States and Spectra for Many-Electron Atoms | p. 247 |
7.7 Atomic Structure Hierarchies, Selection Rules for Discrete Transitions | p. 250 |
7.8 Spectral Line Intensities, Atomic Transition Probabilities, f-Values, and Line Strengths | p. 252 |
7.9 Atomic (Radiative) Lifetimes | p. 257 |
7.10 Scaling, Systematic Trends (Regularities), and Important Characteristics of Spectra | p. 258 |
7.11 Spectral Line Shapes, Widths, and Shifts | p. 260 |
7.12 Spectral Continuum Radiation | p. 262 |
7.13 Sources of Spectroscopic Data | p. 263 |
7.14 References | p. 263 |
8. Biological Physics | p. 265 |
8.1 Introduction | p. 267 |
8.2 Intermolecular Forces | p. 267 |
8.3 Nucleic Acids | p. 269 |
8.4 Proteins and Amino Acids | p. 272 |
8.5 Binding Thermodynamics | p. 274 |
8.6 Nuclear Magnetic Resonance | p. 275 |
8.7 Electron Paramagnetic Resonance | p. 278 |
8.8 Thermodynamics, Mitochrondria, and Chloroplasts | p. 280 |
8.9 Signaling and Transport Across Cell Membranes | p. 284 |
8.10 Electrophysiology | p. 289 |
8.11 Photobiophysics | p. 293 |
8.12 Muscle and Contractility | p. 295 |
8.13 Characterizing Biopolymers in Solution | p. 297 |
8.14 Biophysics, the Health Sciences, and Emerging Technology | p. 300 |
8.15 References | p. 304 |
9. Crystallography | p. 306 |
9.1 Historical Sketch | p. 307 |
9.2 Crystal Data and Symmetry | p. 309 |
9.3 Crystal Diffraction | p. 316 |
9.4 Structure Factor | p. 326 |
9.5 Thermal Motion | p. 332 |
9.6 Diffracting Density Function | p. 335 |
9.7 Phase Problem | p. 336 |
9.8 Crystal Structure Refinement: Method of Least Squares | p. 337 |
9.9 References | p. 339 |
9.10 Appendix: Crystallographic Data Sources | p. 343 |
10. Earth, Ocean, and Atmosphere Physics | p. 349 |
10.1 Introduction | p. 350 |
10.2 Properties of Planet Earth | p. 350 |
10.3 Ocean | p. 353 |
10.4 Atmosphere | p. 363 |
10.5 Global Climate | p. 370 |
10.6 References | p. 375 |
11. Electricity and Magnetism | p. 376 |
11.1 Introduction | p. 377 |
11.2 Electrostatics | p. 377 |
11.3 Magnetostatics | p. 380 |
11.4 Electrodynamics | p. 382 |
11.5 Conservation Laws | p. 386 |
11.6 Electromagnetic Waves | p. 387 |
11.7 Radiation | p. 390 |
11.8 Relativistic Formulation | p. 393 |
11.9 Circuits | p. 395 |
11.10 Units | p. 398 |
11.11 References | p. 400 |
12. Elementary Particles | p. 402 |
12.1 The Standard Model | p. 403 |
12.2 Selected Particle Properties | p. 408 |
12.3 Kinematics | p. 410 |
12.4 Decays and Cross Sections | p. 414 |
12.5 Particle Detectors | p. 418 |
12.6 References | p. 424 |
13. Fluid Dynamics | p. 425 |
13.1 Introduction | p. 426 |
13.2 Properties of Common Fluids | p. 427 |
13.3 Mathematical Description | p. 429 |
13.4 Instability, Transition, and Turbulence | p. 434 |
13.5 Friction and Drag | p. 435 |
13.6 Gas Dynamics | p. 437 |
13.7 Measurement in Fluids | p. 439 |
13.8 References | p. 441 |
14. Mechanics | p. 444 |
14.1 Introduction | p. 445 |
14.2 Newtonian Mechanics | p. 445 |
14.3 Canonical Mechanics | p. 450 |
14.4 Rigid Bodies | p. 455 |
14.5 Relativistic Kinematics | p. 458 |
14.6 Hamiltonian Dynamical Systems | p. 464 |
14.7 References | p. 465 |
15. Medical Physics | p. 467 |
15.1 Introduction | p. 469 |
15.2 Ionizing Radiation: X- and [gamma]-Rays | p. 470 |
15.3 Ionizing Radiation: Electrons | p. 478 |
15.4 Health Risks | p. 480 |
15.5 Ultrasound | p. 480 |
15.6 Magnetic Resonance | p. 480 |
15.7 Brachytherapy | p. 483 |
15.8 Nuclear Medicine | p. 487 |
15.9 References | p. 489 |
16. Molecular Spectroscopy and Structure | p. 492 |
16.1 Introduction | p. 493 |
16.2 Rotational Spectroscopy | p. 493 |
16.3 Vibrational Spectroscopy | p. 502 |
16.4 Electronic Spectra | p. 513 |
16.5 Structure Determination | p. 517 |
16.6 References | p. 520 |
17. Nonlinear Physics and Complexity | p. 522 |
17.1 Dynamical Systems and Bifurcations | p. 523 |
17.2 Chaos and Fractals | p. 529 |
17.3 Space-Time Dynamical Systems | p. 536 |
17.4 References | p. 542 |
18. Nuclear Physics | p. 544 |
18.1 Nuclear Properties | p. 545 |
18.2 Radioactive Decay | p. 549 |
18.3 Nuclear Models | p. 555 |
18.4 Interaction of Nuclear Radiation with Matter | p. 559 |
18.5 Nuclear Reactions | p. 563 |
18.6 Compilations of nuclear data | p. 565 |
18.7 References | p. 566 |
19. Optics | p. 568 |
19.1 Reflection and Refraction | p. 570 |
19.2 Absorption | p. 577 |
19.3 Lenses | p. 578 |
19.4 Mirrors | p. 581 |
19.5 Diffraction | p. 583 |
19.6 Interference | p. 586 |
19.7 Spectra | p. 593 |
19.8 References | p. 596 |
20. Particle Accelerators and Storage Rings | p. 597 |
20.1 Introduction | p. 598 |
20.2 Single-Particle Motion | p. 598 |
20.3 Multiparticle Dynamics | p. 615 |
20.4 References | p. 623 |
21. Plasma Physics | p. 625 |
21.1 Fundamental Plasma Parameters | p. 626 |
21.2 Plasma Dispersion Function | p. 629 |
21.3 Collisions and Transport | p. 632 |
21.4 Solar and Ionospheric Physics | p. 640 |
21.5 Thermonuclear Fusion | p. 642 |
21.6 Electron and Ion Beams | p. 644 |
21.7 Laser-Plasma Interactions | p. 648 |
21.8 Atomic Physics and Radiation | p. 649 |
21.9 References | p. 654 |
22. Polymer Physics | p. 656 |
22.1 Introduction | p. 658 |
22.2 Polymer Molecules | p. 658 |
22.3 Molecular-Mass Averages | p. 658 |
22.4 Single-Chain Dimensions | p. 659 |
22.5 [theta] Solvents and Temperatures | p. 660 |
22.6 Molecular-Weight Characterization | p. 662 |
22.7 Characterization by Spectroscopic Techniques | p. 664 |
22.8 Crystal Structures | p. 664 |
22.9 Bond Lengths and Angles of Polymers | p. 667 |
22.10 Melting and Crystallization | p. 669 |
22.11 Liquid Crystalline Transitions | p. 670 |
22.12 Heat Capacity and Thermodynamic Functions | p. 671 |
22.13 Glass Transition | p. 673 |
22.14 Thermal Expansion | p. 675 |
22.15 Optical Properties of Polymers | p. 676 |
22.16 Stress [sigma subscript ij] and Displacement u[subscript j] at Crack Tips | p. 677 |
22.17 Internal Friction Peaks in Semicrystalline Polymers | p. 678 |
22.18 Representative Mechanical Properties of Some Common Structural Polymers | p. 679 |
22.19 Rheology | p. 680 |
22.20 Electrical Properties | p. 684 |
22.21 Diffusion and Permeation | p. 685 |
22.22 Nonlinear Optical Properties | p. 686 |
22.23 References | p. 690 |
23. Quantum Theory | p. 693 |
Part I. Quantum Mechanics | p. 694 |
23.1 Basic Formalisms | p. 694 |
23.2 Operator Representations and Relationships | p. 695 |
23.3 Quantum Dynamics | p. 703 |
23.4 Approximate Methods: Stationary States | p. 706 |
23.5 Time-Dependent Perturbation Theory | p. 711 |
23.6 Radiation Theory | p. 712 |
23.7 Additional Links to Quantum Systems in other Chapters | p. 715 |
Part II. Quantum Field Theory | p. 715 |
23.8 Brief History | p. 715 |
23.9 Feynman Rules for Gauge Theories | p. 715 |
23.10 Quantum Chromodynamics | p. 721 |
23.11 Standard Electroweak Model | p. 722 |
23.12 References | p. 724 |
24. Solid State Physics | p. 725 |
24.1 Introduction | p. 727 |
24.2 Classification of Solids According to Their Bonding Character | p. 727 |
24.3 Approximations | p. 728 |
24.4 Electrons in Periodic Solids | p. 729 |
24.5 Methods for band-structure calculations | p. 734 |
24.6 Ionic vibrations | p. 737 |
24.7 Thermodynamic Quantities | p. 739 |
24.8 Linear Response to Perturbations | p. 741 |
24.9 Disordered Systems | p. 747 |
24.10 Magnetism | p. 749 |
24.11 Superconductivity | p. 751 |
24.12 Elementary Excitations | p. 753 |
24.13 Artificial Solid Structures and Photonic Crystals | p. 754 |
24.14 References | p. 755 |
25. Surfaces and Films | p. 756 |
25.1 Introduction | p. 757 |
25.2 Surface Analysis: Probing Surfaces and Films | p. 758 |
25.3 Structure and Composition of Surfaces | p. 764 |
25.4 Electronic Structure at Surfaces | p. 767 |
25.5 The Gas-Solid Interface | p. 769 |
25.6 Solid-Liquid and Liquid-Liquid Interfaces | p. 774 |
25.7 Film Formation and Structure | p. 778 |
25.8 Mechanical Properties of Surfaces and Thin Films | p. 785 |
25.9 References | p. 788 |
26. Thermodynamics and Thermophysics | p. 791 |
26.1 Introduction | p. 792 |
26.2 Classical Thermodynamics | p. 792 |
26.3 Statistical Thermodynamics | p. 801 |
26.4 Transport Properties | p. 807 |
26.5 Kinetic Theory | p. 812 |
26.6 References | p. 816 |
27. Practical Laboratory Data | p. 817 |
27.1 Introduction | p. 817 |
27.2 Table: Periodic Table | p. 819 |
27.3 Table: Physical Constants of Elements of Compounds | p. 820 |
27.4 Table: Thermal and Electrical Properties of Metals | p. 826 |
27.5 Table: Dielectric Constant (Relative Permittivity) of Liquids | p. 828 |
27.6 Table: Viscosity of Liquids and Gases | p. 830 |
27.7 Table: Vapor Pressure of the Elements and Selected Compounds | p. 831 |
27.8 Table: Vapor Pressure of Cryogenic Fluids | p. 835 |
27.9 Table: Aqueous Solubility of Solids and Liquids | p. 836 |
27.10 Table: Solubility of Gases in Water | p. 838 |
27.11 Table: Properties of Miscellaneous Solid Materials | p. 838 |
27.12 Table: Densities Known to High Accuracy | p. 840 |
27.13 Fixed Points on the International Temperature Scale of 1990 | p. 841 |
27.14 Table: Properties of Liquid Helium | p. 842 |
27.15 Table: Properties of Water and Ice | p. 843 |
27.16 Table: Vapor Pressure of Water on the ITS-90 Temperature Scale | p. 843 |
Index | p. 845 |