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      Modern physics for the engineer

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      https://www.riss.kr/link?id=M9963653

      • 저자
      • 발행사항

        New York: McGraw Hill, 1954-61

      • 발행연도

        1954

      • 작성언어

        영어

      • 주제어
      • DDC

        530

      • 자료형태

        일반단행본

      • 서명/저자사항

        Modern physics for the engineer / Louis N Ridenour ; William Aaron Nierenberg

      • 판사항

        [1st]-2d ser

      • 형태사항

        2 v: illus; 24 cm.

      • 일반주기명

        Vol. 2 edited by L.N. Ridenour and W.A. Nierenberg.

      • 소장기관
        • 국립중앙도서관 국립중앙도서관 우편복사 서비스
        • 아주대학교 도서관 소장기관정보
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      목차 (Table of Contents)

      • CONTENTS
      • Foreword = ⅶ
      • Preface = ⅸ
      • Introduction = 1
      • PART 1. THE LAWS OF NATURE
      • CONTENTS
      • Foreword = ⅶ
      • Preface = ⅸ
      • Introduction = 1
      • PART 1. THE LAWS OF NATURE
      • 1 Relativity and the Foundations of Mechanics = 11
      • 1.1 Introduction = 11
      • 1.2 The Classical Principle of Relativity = 12
      • 1.2.1 Geometry = 12
      • 1.2.2 Kinematics = 14
      • 1.2.3 Dynamics = 19
      • 1.3 The Conflict between the Classical Principle of Relativity and Electromagnetic Theory = 25
      • 1.4 The Special Principle of Relativity = 28
      • 1.4.1 Optics = 28
      • 1.4.2 Mechanics = 33
      • 1.4.3 Gravitation = 37
      • 1.5 The General Theory of Relativity = 38
      • 1.6 Relativistic Cosmology = 41
      • 2 Atomic Structure = 43
      • 2.1 Development of the Concept of the Atom = 43
      • 2.2 Electrons = 44
      • 2.3 The Rutherford―Bohr Nuclear Atom Model = 45
      • 2.4 Atomic Number and Atomic Weight ; Isotopes = 51
      • 2.5 Protons and Neutrons = 53
      • 2.6 The Exclusion Principle and the Periodic Table = 53
      • 2.7 Atomic Spectra ; the Vector Model = 58
      • 2.8 Failures of the Old Quantum Theory = 60
      • 2.9 The Uncertainty Principle and Complementarity = 62
      • 2.10 Wave Packets and Quantum Mechanics = 66
      • 3 Physics of the Solid State = 69
      • 3.1 Introduction = 69
      • 3.2 Elementary Atomic Principles = 71
      • 3.3 The Ideal Solid Types = 73
      • 3.4 The Electronic Structure of Solids = 74
      • Means of Altering the Electron Distribution
      • 3.5 Influence of Temperature = 84
      • 3.6 Influence of Light = 84
      • 3.7 Other Means of Exciting Electrons = 86
      • Properties Determined by the Ideal Solid
      • 3.8 Cohesion = 86
      • 3.9 Elastic Constants = 87
      • 3.10 Atomic Frequencies = 88
      • 3.11 Specific Heats of Crystalline Solids = 88
      • 3.12 Phase Changes = 89
      • 3.13 Electrical Conductivity = 90
      • 3.14 Magnetism = 90
      • Imperfections in the Interior of Crystals
      • 3.15 Phonons = 92
      • 3.16 Free Electrons and Holes = 93
      • 3.17 Excitons = 93
      • 3.18 Vacancies and Interstitial Atoms = 94
      • 3.19 Foreign Atoms = 94
      • 3.20 Dislocations = 95
      • 4 Magnetism = 97
      • 4.1 Types of Magnetic Behavior = 97
      • 4.2 Paramagnetism = 100
      • 4.3 Ferromagnetism = 101
      • 4.4 Ferromagnetic Domains = 104
      • 4.5 Coercive Force = 111
      • 4.6 Reversible Permeability = 113
      • 4.7 The Bloch Wall = 113
      • 4.8 Frequency Dependence of Magnetic Phenomena = 116
      • 4.9 Magnetic Materials = 118
      • 4.10 Antiferromagnetism = 118
      • 4.11 Ferrites = 122
      • 5 Microwave Spectroscopy = 125
      • 5.1 Introduction = 125
      • 5.2 Spectroscopy in Gases = 128
      • 5.3 Paramagnetic Resonance = 133
      • 6 Nuclear Structure and Transmutation = 140
      • 6.1 Atoms and Nuclei = 140
      • 6.2 Elementary Particles and Nuclear Constituents = 142
      • 6.3 Notation of Nuclear Physics = 146
      • 6.4 Techniques of Nuclear Research = 147
      • 6.5 Protons and Neutrons as Nucleons = 152
      • 6.6 The Deuteron and Nuclear Forces = 156
      • 6.7 Nuclear Binding Energy and Stability = 156
      • 6.8 Nuclear­energy Release = 162
      • 6.9 Nuclear Transformations = 163
      • 6.10 Excited States of Nuclei = 169
      • 6.11 Nuclear Shell Structure = 171
      • 7 Electronuclear Machines = 173
      • 7.1 Historical Introduction = 173
      • 7.2 The Van de Graaff Generator = 174
      • 7.3 The Betatron = 177
      • 7.4 The Fixed―frequency Cyclotron = 183
      • 7.5 The Principle of Phase Stability = 184
      • 7.6 Synchrotron Oscillations = 188
      • 7.7 Linear Accelerators = 191
      • 8 The Actinide Elements and Nuclear Power = 197
      • 8.1 Introduction = 197
      • 8.2 Transuranium Elements = 198
      • 8.2.1 Neptunium (Atomic Number 93) = 198
      • 8.2.2 Plutonium (Atomic Number 94) = 199
      • 8.2.3 Americium (Atomic Number 95) = 201
      • 8.2.4 Curium (Atomic Number 96) = 202
      • 8.2.5 Berkelium (Atomic Number 97) = 203
      • 8.2.6 Californium (Atomic Number 98) = 203
      • 8.2.7 Elements 99 and 100 = 204
      • 8.3 Actinide Transition Series = 205
      • 8.4 Nuclear Energy for Power = 213
      • 8.4.1 General Considerations = 213
      • 8.4.2 Reproduction Factor and Critical Size = 216
      • 8.4.3 Scientific and Engineering Problems = 217
      • 8.4.4 Production Reactors = 219
      • 8.4.5 Power Reactors = 220
      • 8.4.6 Economic Considerations = 221
      • 9 Elementary Particles = 223
      • 9.1 Introduction = 223
      • 9.2 Selection Rules on Transformation Processes = 224
      • 9.3 Forces of Interaction between Particles = 226
      • 9.4 Catalogue of Familiar Particles = 226
      • 9.4.1 Negative Electrons, Neutrons, and Protons = 226
      • 9.4.2 The Neutrino = 227
      • 9.4.3 The Positron = 227
      • 9.4.4 Photons = 228
      • 9.5 Processes Involving These Particles = 228
      • 9.6 Mesons and Their Reactions = 229
      • PART 2. MAN'S PHYSICAL ENVIRONMENT
      • 10 Astrophysics = 235
      • 10.1 Introduction = 235
      • 10.2 The Stars = 236
      • 10.3 Stellar Lifetimes and Evolution = 237
      • 10.4 Structure of the Galaxy. Interstellar Gas and Dust = 238
      • 10.5 The Theory of the Spectroscopic Analysis of the Stars = 243
      • 10.6 The Technique and Limitations of Astronomical Spectroscopy = 246
      • 10.7 Spectral Classification ; Ionization and Excitation in Normal Stars = 251
      • 10.8 Abundances of the Elements in Normal Stars = 254
      • 10.9 The Spectra of Abnormal Stars = 258
      • 10.10 The Internal Structure of a Star = 259
      • 10.11 The Energy―generation Processes in Normal Stars = 263
      • 10.12 Correlations of Energy­generation Processes and the Spectroscopic Features of the Star = 265
      • 10.13 Abundance Differences Depending on the Origin of the Stars = 269
      • 11 High―pressure Phenomena with Applications to Geophysics = 272
      • 11.1 Introduction = 272
      • 11.2 Elements of High­pressure Technique = 274
      • Effects of Pressure on Some Selected Physical Properties
      • 11.3 Effects on Crystal Structure = 279
      • 11.4 Effects on Atomic Structure = 282
      • 11.5 Effects on Nuclear Structure = 283
      • 11.6 Electrical Resistivity = 283
      • 11.7 Viscosity = 286
      • 11.8 Elastic Constants = 287
      • 11.9 Strength and Plasticity = 288
      • Geophysical Implications of High―pressure Results
      • 11.10 Composition of the Earth = 293
      • 11.11 Temperatures in the Earth = 294
      • 11.12 Origin of the Earth's Magnetic Field = 294
      • 11.13 Fracture and Flow in the Earth = 295
      • 11.14 Origin of the Earth's Surface Features = 302
      • 12 The Earth beneath the Sea = 306
      • 12.1 Introduction = 306
      • 12.2 Echo Sounding and Submarine Topography = 309
      • 12.3 Seismic Methods of Exploring the Crust and Mantle = 316
      • 12.4 Heat Flow from beneath the Sea Floor = 320
      • 12.5 Deep­sea Sediments = 324
      • 13 Thunderstorms and Lightning Strokes = 330
      • 13.1 Introduction = 330
      • 13.2 The Thunderstorm Cell = 331
      • 13.3 Mechanisms of Thunderstorm Electrification = 336
      • 13.4 Characteristics of Typical Thunderstorms and Lightning Discharges = 337
      • 13.5 Generation of Lightning Strokes = 351
      • 14 Transient Phenomena in Supersonic Flow = 358
      • 14.1 Experimental Methods = 358
      • 14.2 Characteristics of a Shock Front = 359
      • 14.3 Reflection of Shocks from a Rigid Wall = 363
      • 14.4 Refraction at a Gaseous Interface = 370
      • 14.5 Diffraction = 372
      • PART 3. INFORMATION AND ITS COMMUNICATION
      • 15 Electrons and Waves = 381
      • 15.1 Introduction = 381
      • 15.2 The Emission of Free Electrons = 382
      • 15.3 Returning Electrons = 383
      • 15.4 Control of Electrons near the Cathode = 384
      • 15.5 Origin of Electron­stream Noise = 386
      • 15.6 Flow of Electron Streams = 387
      • 15.7 Electron Optics = 388
      • 15.8 Interaction between Electron Streams and Electromagnetic Fields = 390
      • 15.9 Currents Induced by Electron Motion = 391
      • 15.10 Energy Interchange for Finite Transit Times = 392
      • 15.11 Traveling Waves in Electron Streams = 395
      • 15.12 Guided Electromagnetic Waves = 396
      • 16 Semiconductor Electronics = 400
      • 16.1 Introduction = 400
      • 16.2 Types of Semiconductors = 400
      • 16.3 Energy Bands = 403
      • 16.4 Carrier Concentrations = 404
      • 16.5 Lifetime of Minority Carriers = 405
      • 16.6 Photoconductivity = 406
      • 16.7 Nature of Flow = 406
      • 16.8 Applications of Photoconductivity = 408
      • 16.9 The Germanium Diode = 410
      • 16.10 The Point―contact Transistor = 411
      • 16.11 The Haynes―Shockley Mobility Experiment = 412
      • 16.12 pn Junctions = 414
      • 16.13 Junction Transistors = 417
      • 16.14 Fused―junction Diodes and Transistors = 422
      • 16.15 Unipolar Devices = 424
      • 17 Communication Theory and the Transmission of Information = 427
      • 17.1 Introduction = 427
      • 17.2 Information Measure : The Discrete Noiseless Case = 432
      • 17.2.1 The Unit of Information = 432
      • 17.2.2 Selection from N Equally Likely Choices = 433
      • 17.2.3 Information Measure When the Choices Are Not Equally Likely = 434
      • 17.2.4 Source or Code Efficiency = 437
      • 17.2.5 Nonindependent Symbols = 438
      • 17.3 The Discrete Source with a Noisy Channel = 440
      • 17.3.1 Measure of Equivocation = 441
      • 17.3.2 Channel Capacity = 442
      • 17.3.3 Coding against Noise = 442
      • 17 4 Transmission in the Presence of Noise : Continuous Signals = 443
      • 17.4.1 The Sampling Theorem = 443
      • 17.4.2 Measure of Information for Continuous Signals = 443
      • 17.4.3 Channel Capacity for Continuous Signals in the Presence of Noise = 444
      • 17.5 Interpretation of the Channel­capacity Formula = 445
      • 17.5.1 Geometric Interpretation of the Communication Process = 446
      • 17.5.2 Modulation as Mapping in Signal Space = 447
      • 17.5.3 Pulse Code Modulation ­ An Efficient Modulation System = 448
      • 17.6 Coding for Transmission = 450
      • 17.6.1 Statistically Matched Codes = 451
      • 17.6.2 n―Gramming = 452
      • 17.6.3 The Monogrammer = 452
      • 17.6.4 The Digrammer = 453
      • 17.6.5 More Elaborate Coding Systems = 454
      • 18 Computing Machines and the Processing of Information = 455
      • Historical Introduction
      • 18.1 Meaning of the Term “High­speed Automatic Digital Computer” = 455
      • 18.2 Desk Computers = 457
      • 18.3 The Work of Charles Babbage = 457
      • 18.4 Punched―card Machines = 459
      • 18.5 Relay Computers = 459
      • 18.6 The ENIAC = 460
      • Computing Machines and Their Application
      • 18.7 The Parts of a Machine = 460
      • 18.7.1 General Organization = 460
      • 18.7.2 Arithmetic Unit = 461
      • 18.7.3 High―speed Storage Unit = 461
      • 18.7.4 Control Unit = 461
      • 18.7.5 Input and Output Equipment = 461
      • 18.8 General Design Considerations = 462
      • 18.8.1 Representation of Numbers in the Machine = 462
      • 18.8.2 Placement of the Decimal (or Binary) Point = 463
      • 18.8.3 "Serial" and "Parallel" Operation = 464
      • 18.8.4 Choice of the Order Code = 465
      • 18.9 A Typical Machine : the ORDVAC = 465
      • 18.9.1 Arithmetic Unit of the ORDVAC = 467
      • 18.9.2 High―speed Storage = 469
      • 18.9.3 Control = 470
      • 18.9.4 Arithmetic = 472
      • 18.9.5 Power Supplies = 473
      • 18.9.6 Performance = 474
      • 18.10 Programming and Coding = 474
      • 18.11 Prospects for Future Development = 479
      • 18.11.1 New Storage Media = 480
      • 18.11.2 Real―time Operation. Simulation = 482
      • 18.12 Digital Machines in Business and Industry = 483
      • The Social Implications of Information Machines
      • 18.13 The "Second Industrial Revolution" = 486
      • 18.14 The Natural History of Machines = 486
      • 18.15 Results of the Second Industrial Revolution = 489
      • Name Index = 491
      • Subject Index = 495
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