Modern physics: for scientists and engineers
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1. Verfasser: | |
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Format: | Buch |
Sprache: | English |
Veröffentlicht: |
Amsterdam [u.a.]
Elsevier
2010
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Online-Zugang: | Inhaltsverzeichnis Klappentext |
Beschreibung: | XXXVII, 447 S. Ill., graph. Darst. |
ISBN: | 0123751128 9780123751126 |
Internformat
MARC
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020 | |a 9780123751126 |9 978-0-12-375112-6 | ||
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245 | 1 | 0 | |a Modern physics |b for scientists and engineers |c John C. Morrison |
264 | 1 | |a Amsterdam [u.a.] |b Elsevier |c 2010 | |
300 | |a XXXVII, 447 S. |b Ill., graph. Darst. | ||
336 | |b txt |2 rdacontent | ||
337 | |b n |2 rdamedia | ||
338 | |b nc |2 rdacarrier | ||
650 | 0 | 7 | |a Physik |0 (DE-588)4045956-1 |2 gnd |9 rswk-swf |
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999 | |a oai:aleph.bib-bvb.de:BVB01-020190738 |
Datensatz im Suchindex
_version_ | 1804142776858705920 |
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adam_text | CONTENTS
PREFACE
............................................... xiii
INTRODUCTION
.......................................... xvii
CHAPTER
1
The Wave-Particle Duality
......................... 1
1.1
The Particle Model of Light
......................... 1
1.1.1
The Photoelectric Effect
...................... 1
1.1.2
The Absorption and Emission of Light by Atoms
.......... 5
1.1.3
The Compton Effect
......................... 13
1.2
The Wave Model of Radiation and Matter
.................
l4
1.2.1
X-Ray Scattering
..........................
lM-
1.2.2
Electron Waves
........................... 15
Suggestions for Further Reading
......................... 18
Basic Equations
.................................. 18
Summary
...................................... 19
Questions
...................................... 19
Problems
...................................... 20
CHAPTER
2
The
Schrödinger
Wave Equation
..................... 23
2.1
The Wave Equation
............................. 23
2.2
Probabilities and Average Values
...................... 28
2.3
The Finite Potential Well
.......................... 32
2.4
The Simple Harmonic Oscillator
....................... 35
2.4.1
The
Schrödinger
Equation for the Oscillator
............ 36
2.5
Time Evolution of the Wave Function
.................... 38
Suggestion for Further Reading
..........................
4l
Basic Equations
..................................
4l
Summary
...................................... 42
Questions
......................................
43
Problems
...................................... 44
CHAPTER
3
Operators and Waves
............................ 47
3.1
Observables,
Operators, and Eigenvalues
................. 48
3.2 *
Algebraic Solution of the Oscillator
.................... 52
3.3
Electron Scattering
............................. 57
3.3.1
Scattering from a Potential Step
.................. 57
3.3.2
Barrier Penetration and Tunneling
................. 61
3.4
The
Heisenberg
Uncertainty Principle
...................
б4
3.4.1
The Simultaneous Measurement of
Тшо
Variables
.........
б4
3.4.2
Wave Packets and the Uncertainty Principle
............ 67
3.4.3
Average Value of the Momentum and the Energy
......... 69
CONTENTS
viii
Suggestion
for Further Reading
.......................... 71
Basic Equations
..................................
Summary
......................................
Questions
......................................
Problems
......................................
73
CHAPTER
·*
Hydrogen Atom
................................
7S
4.1
The Gross Structure of Hydrogen
...................... 75
4.1.1
The
Schrödinger
Equation in Three Dimensions
.......... 75
4.1.2
The Energy Levels of Hydrogen
.................. 76
4.1.3
The Wave Functions of Hydrogen
................. 78
4.1.4
Probabilities and Average Values in Three Dimensions
...... 81
4.1.5
The Intrinsic Spin of the Electron
.................. 83
4.2
Radiative Transitions
............................ 84
4.2.1
The Einstein A and
Є
Coefficients
................. 84
4.2.2
Transition Probabilities
....................... 85
4.2.3
Selection Rules
........................... 90
4.3
The Fine Structure of Hydrogen
...................... 91
4.3.1
The Magnetic Moment of the Electron
............... 91
4.3.2
The Stern-Gerlach Experiment
................... 94
4.3.3
The Spin of the Electron
...................... 95
4.3.4
The Addition of Angular Momentum
................ 96
4.3.5
Rule for Addition of Angular Momenta
............... 97
4.3.6
*The Fine Structure
......................... 98
4.3.7 *
The
Zeeman
Effect
........................ 99
Suggestion for Further Reading
.......................... 101
Basic Equations
.................................. 102
Summary
...................................... 103
Questions
...................................... 104
Problems
...................................... 105
CHAPTER
5
Many-Electron Atoms
............................ 109
5.1
The Independent-Particle Model
...................... 109
5.1.1
Antisymmetric Wave Functions and the
Pauli
Exclusion Principle
......................... 110
5.1.2
The Central-Field Approximation
..................
Ill
5.2
Shell Structure and the Periodic Table
................... 113
5.3
The LS Term Energies
............................
Il4
5.4
Configurations of
Тшо
Electrons
...................... 115
5.4.1
Configurations of Equivalent Electrons
............... 116
5.4.2
Configurations of
Тшо
Nonequivalent
Electrons
.......... 118
5.5
The Hartree-Fock Method
.......................... 118
5.5.1
A Hartree-Fock Applet
....................... 121
5.5.2
The Size of Atoms and the Strength of Their Interactions
..... 123
Suggestion for Further Reading
.......................... 126
Basic Equations
.................................. 126
Summary
............................. 127
Questions
............................ 127
Problems
.......................... 128
CONTENTS
CHAPTER
6
The Emergence of
Masers
and Lasers
.................. 131
6.1
Radiative Transitions
............................ 131
6.2
Laser Amplification
............................. 132
6.3
Laser Cooling
................................ 136
6.4 *
Magneto-Optical Traps
........................... 137
Suggestions for Further Reading
.........................
l4l
Basic Equations
..................................
lM-1
Summary
......................................
l42
Questions
......................................
l42
Problems
...................................... 143
CHAPTER
7
Statistical Physics
..............................
l45
7.1
The Nature of Statistical Lams
.......................
l45
7.2
An Ideal Gas
.................................
l48
7.3
Applications of Maxiuell-Boltzmann Statistics
............... 151
7.3.1
МахшеІІ
Distribution of the Speeds of Gas Particles
....... 151
7.3.2
Black-Body Radiation
........................ 158
7.4
Entropy and the Laujs of Thermodynamics
................. 163
7.4.1
The Four Lams of Thermodynamics
................ 166
7.5
A Perfect Quantum Gas
........................... 168
7.6
Bose-Einstein Condensation
........................ 173
7.7
Free-Electron Theory of Metals
....................... 176
Suggestions for Further Reading
......................... 180
Basic Equations
.................................. 180
Summary
...................................... 182
Questions
...................................... 183
Problems
...................................... 184
CHAPTER
8
Electronic Structure of Solids
....................... 187
8.1
Introduction
................................. 187
8.2
The
Bravais
Lattice
............................. 188
8.3
Additional Crystal Structures
........................ 192
8.3.1
The Diamond Structure
....................... 192
8.3.2
The Hexagonal Close-Packed Structure
.............. 193
8.3.3
The Sodium Chloride Structure
................... 194
8.4
The Reciprocal Lattice
............................ 194
8.5
Lattice Planes
................................ 198
8.6
Bloch s Theorem
............................... 203
8.7
Diffraction of Electrons by an Ideal Crystal
................. 208
8.8
The Band Gap
................................ 210
8.9
Classification of Solids
............................ 212
8.9.1
The Band Picture
.......................... 212
8.9.2
The Bond Picture
.......................... 213
Suggestions for Further Reading
......................... 216
Basic Equations
.................................. 216
Summary
...................................... 218
Questions
...................................... 218
Problems
...................................... 219
ix
CONTENTS
CHAPTER
9 Charge
Carriers in Semiconductors
................... 223
9.1
Density of Charge Carriers in Semiconductors
............... 223
9.2
Doped Crystals
................................ 227
9.3
A Feui Simple Devices
............................ 228
9.3.1
The
p
-п
Junction
.......................... 228
9.3.2
Bipolar Transistors
......................... 230
9.3.3
Junction Field-Effect Transistors (JFET)
............. 231
9.3.4
MOSFETs
.............................. 232
Suggestions for Further Reading
......................... 233
Summary
...................................... 233
Questions
...................................... 233
CHAPTER
10
Semiconductor Lasers
............................ 235
10.1
Motion of Electrons in a Crystal
....................... 235
10.2
Band Structure of Semiconductors
..................... 237
10.2.1
Conduction Bands
.......................... 237
10.2.2
Valence Bands
............................ 238
10.2.3
Optical Transitions
......................... 239
10.3
Heterostructures
.............................. 240
10.3.1
Properties of Heterostructures
................... 240
10.3.2
Experimental Methods
....................... 242
10.3.3
TheoreticalMethods
........................ 243
10.3.4
Band Engineering
.......................... 244
10.4
Quantum Wells
................................ 245
10.4.1
The Finite Well
........................... 246
10.4.2
Tujo-Dimensional Systems
.....................
24б
10.4.3
*Quantum Wells in Heterostructures
................ 248
10.5
Quantum Barriers
.............................. 250
10.5.1
Scattering from a Potential Step
.................. 250
10.5.2
r-Matrices
.............................. 252
10.6
Reflection and Transmission of Light
.................... 255
10.6.1
Reflection and Transmission by an Interface
............ 256
10.6.2
The Fabry-Perot Laser
....................... 258
10.7
Phenomenological Description of Diode Lasers
.............. 259
10.7.1
The Rate Equation
......................... 260
10.7.2
Well
Веіош
Threshold
........................ 262
10.7.3
The Laser Threshold
........................ 263
10.7.4
Above Threshold
..........................
2б4
Suggestions for Further Reading
......................... 265
Basic Equations
.................................. 265
Summary
...................................... 267
Questions
...................................... 267
Problems
...................................... 268
CHAPTER
U
Relativity I
.................................... 271
11.1
Introduction
................................. 271
11.2
Galilean Transformations
.......................... 271
11.3
The Relative Nature of Simultaneity
.................... 274
CONTENTS
11.4
Lorentz
Transformation
........................... 277
11.4.1
The Transformation Equations
................... 277
11.4.2
Lorentz
Contraction
......................... 280
11.4.3
Time Dilation
............................ 281
11.4.4
The Invariant Space-Time Interval
................. 285
11.4.5
Addition of Velocities
........................ 286
11.4.6
The
Doppler
Effect
......................... 287
11.5
Space-Time Diagrams
............................ 289
11.5.1
Particle Motion
........................... 290
11.5.2
Lorentz
Transformations
...................... 293
11.5.3
The Light Cone
........................... 294
11.6
Four-Vectors
................................. 295
Suggestions for Further Reading
......................... 301
Basic Equations
.................................. 301
Summary
...................................... 303
Questions
...................................... 303
Problems
...................................... 304
CHAPTER
12
Relativity II
................................... 307
12.1
Momentum and Energy
........................... 307
12.2
Conservation of Energy and Momentum
.................. 311
12.3
*TheDirac Theory of the Electron
..................... 315
12.3.1
RevieuioftheSchrödinger
Theory
................. 315
12.3.2
The Klein-Gordon Equation
..................... 317 xi
12.3.3
The Dirac Equation
......................... 318
12.3.4
Plane Wave Solutions of the Dirac Equation
............ 322
12.4 *
Field Quantization
............................. 326
Suggestions for Further Reading
......................... 327
Basic Equations
.................................. 328
Summary
...................................... 330
Questions
...................................... 330
Problems
...................................... 331
CHAPTER
13
Particle Physics
................................ 333
13.1
Leptons and Quarks
............................. 333
13.2
Conservation Laujs
.............................
34l
13.2.1
Energy, Momentum, and Charge
..................
34l
13.2.2
Lepton
Number
...........................
342
13.2.3 Baryon
Number
...........................
344
13.2.4
Strangeness
.............................
34б
13.2.5
Charm, Beauty, and Truth
......................
348
13.3
Spatial Symmetries
............................. 349
13.3.1
Angular Momentum of Composite Systems
............ 349
13.3.2
Parity
................................ 351
13.3.3
Charge Conjugation
......................... 353
13.4
Isospin and Color
............................... 355
13.4.1
Isospin
................................ 356
13.4.2
Color
................................. 361
CONTENTS
13.5
Feynman Diagrams
.............................
Зб4
13.5.1
Electromagnetic Interactions
.................... 366
13.5.2
Weak Interactions
.......................... 367
13.5.3
Strong Interactions
......................... 369
13.6
*The Flavor and Color SU{3) Symmetries
.................. 370
13.6.1
The SU(3) Symmetry Group
..................... 371
13.6.2
The Representations of SU(3)
................... 374
13.7
*Gauge
Invariance
and the Higgs Boson
.................. 379
Suggestions for Further Reading
......................... 382
Basic Equations
.................................. 382
Summary
...................................... 384
Questions
...................................... 384
Problems
...................................... 385
CHAPTER l4 Nuclear Physics
................................ 389
14.1
Introduction
................................. 389
14.2
Properties of Nuclei
............................. 389
14.2.1
Nuclear Sizes
............................ 390
14.2.2
Binding Energies
.......................... 393
14.2.3
The Semiempirical Mass Formula
.................. 395
14.3
Decay Processes
.............................. 397
14.3.1
Alpha Decay
............................. 399
14.3.2
The ^-Stability Valley
........................ 400
14.3.3
Gamma Decay
............................ 403
14.3.4
Natural Radioactivity
........................
4o4
14.4
The Nuclear Shell Model
...........................
4o4
14.4.1
Nuclear Potential Wells
....................... 405
14.4.2
Nucleón
States
........................... 405
14.4.3
Magic Numbers
........................... 408
14.4.4
The Spin-Orbit Interaction
..................... 408
14.5
Excited States of Nuclei
........................... 409
Suggestions for Further Reading
.........................
4l3
Basic Equations
..................................
4l4
Summary
......................................
4l4
Questions
......................................
4l4
Problems
...................................... 415
APPENDIX A Natural Constants and Conversion Factors
..............
4l9
APPENDIXB Atomic Masses
................................. 421
APPENDIX
С
Solution of the Oscillator Equation
................... 427
APPENDIX
D
The Average Value of the Momentum
..................
433
APPENDIXE
TheHartree-FockApplet
.......................... 435
APPENDIX
F
Integrals That Arise in Statistical Physics
............... 437
APPENDIXG The Abinit Applet
...............................
44l
INDEX
.................................................
І4Ц3
Odern
Physics
for Scientists and Engineers
John C. Morrison
Modern Physics for Scientists and Engineers presents the ideas that have
shaped modern physics and provides an introduction to current research in
various fields of physics. Taking into account the needs and interests of science
and engineering students, the book begins with a brief and focused account of
historical events leading to the formulation of modern quantum theory, while
ensuing chapters go deeper into the underlying physics.
Topics such as Bloch s theorem and semiconductor heterostructures
help to give engineering students the physics background they need to
benefit from the courses they will later take on semiconductor devices, while
subjects like
Bőse-Einstein
condensation and Feynman diagrams help
students appreciate the range and scope of contemporary physics.
KEY FEATURES
•
Emphasis on modern atomic, statistical, and condensed matter physics
•
Contains a phenomenological description of semiconductor lasers
•
Chapters on relativity theory include a description of the Dirac equation
ANCILLARIES
Companion Web Site with Instructor s Manual and Student
Solutions Manual available online
SPECIAL FEATURE
Applets are available on the Companion Web Site to allow students
to solve real problems in atomic and condensed matter physics
9780123751126
MODERN PHYSICS
780123
751126
|
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publisher | Elsevier |
record_format | marc |
spelling | Morrison, John C. 1940- Verfasser (DE-588)143099051 aut Modern physics for scientists and engineers John C. Morrison Amsterdam [u.a.] Elsevier 2010 XXXVII, 447 S. Ill., graph. Darst. txt rdacontent n rdamedia nc rdacarrier Physik (DE-588)4045956-1 gnd rswk-swf (DE-588)4123623-3 Lehrbuch gnd-content Physik (DE-588)4045956-1 s DE-604 Digitalisierung UB Bayreuth application/pdf http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=020190738&sequence=000003&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA Inhaltsverzeichnis Digitalisierung UB Bayreuth application/pdf http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=020190738&sequence=000004&line_number=0002&func_code=DB_RECORDS&service_type=MEDIA Klappentext |
spellingShingle | Morrison, John C. 1940- Modern physics for scientists and engineers Physik (DE-588)4045956-1 gnd |
subject_GND | (DE-588)4045956-1 (DE-588)4123623-3 |
title | Modern physics for scientists and engineers |
title_auth | Modern physics for scientists and engineers |
title_exact_search | Modern physics for scientists and engineers |
title_full | Modern physics for scientists and engineers John C. Morrison |
title_fullStr | Modern physics for scientists and engineers John C. Morrison |
title_full_unstemmed | Modern physics for scientists and engineers John C. Morrison |
title_short | Modern physics |
title_sort | modern physics for scientists and engineers |
title_sub | for scientists and engineers |
topic | Physik (DE-588)4045956-1 gnd |
topic_facet | Physik Lehrbuch |
url | http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=020190738&sequence=000003&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=020190738&sequence=000004&line_number=0002&func_code=DB_RECORDS&service_type=MEDIA |
work_keys_str_mv | AT morrisonjohnc modernphysicsforscientistsandengineers |