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Physical Chemistry
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Preface xv 1 Gases and the Zeroth Law of Thermodynamics 1 1.1 Synopsis 1 1.2 System, Surroundings, and State 2 1.3 The Zeroth Law of Thermodynamics 3 1.4 Equations of State 5 1.5 Partial Derivatives and Gas Laws 8 1.6 Nonideal Gases 10 1.7 More on Derivatives 18 1.8 A Few Partial Derivatives Defined 20 1.9 Summary 21 Exercises 22 2 The First Law of Thermodynamics 24 2.1 Synopsis 24 2.2 Work and Heat 24 2.3 Internal Energy and the First Law of Thermodynamics 32 2.4 State Functions 33 2.5 Enthalpy 36 2.6 Changes in State Functions 38 2.7 Joule-Thomson Coefficients 42 2.8 More on Heat Capacities 46 2.9 Phase Changes 50 2.10 Chemical Changes 53 2.11 Changing Temperatures 58 2.12 Biochemical Reactions 60 2.13 Summary 62 Exercises 63 Copyright 2011 Cengage Learning. All Rights Reserved. May not be copied, scanned, or duplicated, in whole or in part. 3 The Second and Third Laws of Thermodynamics 66 3.1 Synopsis 66 3.2 Limits of the First Law 66 3.3 The Carnot Cycle and Efficiency 68 3.4 Entropy and the Second Law of Thermodynamics 72 3.5 More on Entropy 75 3.6 Order and the Third Law of Thermodynamics 79 3.7 Entropies of Chemical Reactions 81 3.8 Summary 85 Exercises 86 4 Free Energy and Chemical Potential 89 4.1 Synopsis 89 4.2 Spontaneity Conditions 89 4.3 The Gibbs Free Energy and the Helmholtz Energy 92 4.4 Natural Variable Equations and Partial Derivatives 96 4.5 The Maxwell Relationships 99 4.6 Using Maxwell Relationships 103 4.7 Focusing on ?G 105 4.8 The Chemical Potential and Other Partial Molar Quantities 108 4.9 Fugacity 110 4.10 Summary 114 Exercises 115 5 Introduction to Chemical Equilibrium 118 5.1 Synopsis 118 5.2 Equilibrium 119 5.3 Chemical Equilibrium 121 5.4 Solutions and Condensed Phases 129 5.5 Changes in Equilibrium Constants 132 5.6 Amino Acid Equilibria 135 5.7 Summary 136 Exercises 138 6 Equilibria in Single-Component Systems 141 6.1 Synopsis 141 6.2 A Single-Component System 145 6.3 Phase Transitions 145 6.4 The Clapeyron Equation 148 6.5 The Clausius-Clapeyron Equation 152 6.6 Phase Diagrams and the Phase Rule 154 6.7 Natural Variables and Chemical Potential 159 6.8 Summary 162 Exercises 163 viii C O N T E N T S Copyright 2011 Cengage Learning. All Rights Reserved. May not be copied, scanned, or duplicated, in whole or in part. 7 Equilibria in Multiple-Component Systems 166 7.1 Synopsis 166 7.2 The Gibbs Phase Rule 167 7.3 Two Components: Liquid/Liquid Systems 169 7.4 Nonideal Two-Component Liquid Solutions 179 7.5 Liquid/Gas Systems and Henry’s Law 183 7.6 Liquid/Solid Solutions 185 7.7 Solid/Solid Solutions 188 7.8 Colligative Properties 193 7.9 Summary 201 Exercises 203 8 Electrochemistry and Ionic Solutions 206 8.1 Synopsis 206 8.2 Charges 207 8.3 Energy and Work 210 8.4 Standard Potentials 215 8.5 Nonstandard Potentials and Equilibrium Constants 218 8.6 Ions in Solution 225 8.7 Debye-Hückel Theory of Ionic Solutions 230 8.8 Ionic Transport and Conductance 234 8.9 Summary 237 Exercises 238 9 Pre-Quantum Mechanics 241 9.1 Synopsis 241 9.2 Laws of Motion 242 9.3 Unexplainable Phenomena 248 9.4 Atomic Spectra 248 9.5 Atomic Structure 251 9.6 The Photoelectric Effect 253 9.7 The Nature of Light 253 9.8 Quantum Theory 257 9.9 Bohr’s Theory of the Hydrogen Atom 262 9.10 The de Broglie Equation 267 9.11 Summary: The End of Classical Mechannics 269 Exercises 271 10 Introduction to Quantum Mechanics 273 10.1 Synopsis 273 10.2 The Wavefunction 274 10.3 Observables and Operators 276 10.4 The Uncertainty Principle 279 10.5 The Born Interpretation of the Wavefunction; Probabilities 281 C O N T E N T S ix Copyright 2011 Cengage Learning. All Rights Reserved. May not be copied, scanned, or duplicated, in whole or in part. 10.6 Normalization 283 10.7 The Schrödinger Equation 285 10.8 An Analytic Solution: The Particle-in-a-Box 288 10.9 Average Values and Other Properties 293 10.10 Tunneling 296 10.11 The Three-Dimensional Particle-in-a-Box 299 10.12 Degeneracy 303 10.13 Orthogonality 306 10.14 The Time-Dependent Schrödinger Equation 308 10.15 Summary 309 Exercises 311 11 Quantum Mechanics: Model Systems and the Hydrogen Atom 315 11.1 Synopsis 315 11.2 The Classical Harmonic Oscillator 316 11.3 The Quantum-Mechanical Harmonic Oscillator 318 11.4 The Harmonic Oscillator Wavefunctions 324 11.5 The Reduced Mass 330 11.6 Two-Dimensional Rotations 333 11.7 Three-Dimensional Rotations 341 11.8 Other Observables in Rotating Systems 347 11.9 The Hydrogen Atom: A Central Force Problem 352 11.10 The Hydrogen Atom: The Quantum-Mechanical Solution 353 11.11 The Hydrogen Atom Wavefunctions 358 11.12 Summary 365 Exercises 367 12 Atoms and Molecules 370 12.1 Synopsis 370 12.2 Spin 371 12.3 The Helium Atom 374 12.4 Spin Orbitals and the Pauli Principle 377 12.5 Other Atoms and the Aufbau Principle 382 12.6 Perturbation Theory 386 12.7 Variation Theory 394 12.8 Linear Variation Theory 398 12.9 Comparison of Variation and Perturbation Theories 402 12.10 Simple Molecules and the Born-Oppenheimer Approximation 403 12.11 Introduction to LCAO-MO Theory 405 12.12 Properties of Molecular Orbitals 409 12.13 Molecular Orbitals of Other Diatomic Molecules 410 12.14 Summary 413 Exercises 416 x C O N T E N T S Copyright 2011 Cengage Learning. All Rights Reserved. May not be copied, scanned, or duplicated, in whole or in part. 13 Introduction to Symmetry in Quantum Mechanics 419 13.1 Synopsis 419 13.2 Symmetry Operations and Point Groups 419 13.3 The Mathematical Basis of Groups 423 13.4 Molecules and Symmetry 427 13.5 Character Tables 430 13.6 Wavefunctions and Symmetry 437 13.7 The Great Orthogonality Theorem 438 13.8 Using Symmetry in Integrals 441 13.9 Symmetry-Adapted Linear Combinations 443 13.10 Valence Bond Theory 446 13.11 Hybrid Orbitals 450 13.12 Summary 456 Exercises 457 14 Rotational and Vibrational Spectroscopy 461 14.1 Synopsis 461 14.2 Selection Rules 462 14.3 The Electromagnetic Spectrum 463 14.4 Rotations in Molecules 466 14.5 Selection Rules for Rotational Spectroscopy 471 14.6 Rotational Spectroscopy 473 14.7 Centrifugal Distortions 479 14.8 Vibrations in Molecules 481 14.9 The Normal Modes of Vibration 483 14.10 Quantum-Mechanical Treatment of Vibrations 484 14.11 Selection Rules for Vibrational Spectroscopy 487 14.12 Vibrational Spectroscopy of Diatomic and Linear Molecules 491 14.13 Symmetry Considerations for Vibrations 496 14.14 Vibrational Spectroscopy of Nonlinear Molecules 498 14.15 Nonallowed and Nonfundamental Vibrational Transitions 503 14.16 Fingerprint Regions 504 14.17 Rotational-Vibrational Spectroscopy 506 14.18 Raman Spectroscopy 511 14.19 Summary 514 Exercises 515 15 Introduction to Electronic Spectroscopy and Structure 519 15.1 Synopsis 519 15.2 Selection Rules 520 15.3 The Hydrogen Atom 520 15.4 Angular Momenta: Orbital and Spin 522 15.5 Multiple Electrons: Term Symbols and Russell-Saunders Coupling 526 C O N T E N T S xi Copyright 2011 Cengage Learning. All Rights Reserved. May not be copied, scanned, or duplicated, in whole or in part. 15.6 Electronic Spectra of Diatomic Molecules 534 15.7 Vibrational Structure and the Franck-Condon Principle 539 15.8 Electronic Spectra of Polyatomic Molecules 541 15.9 Electronic Spectra of ? Electron Systems: Hückel Approximations 543 15.10 Benzene and Aromaticity 546 15.11 Fluorescence and Phosphorescence 548 15.12 Lasers 550 15.13 Summary 556 Exercises 558 16 Introduction to Magnetic Spectroscopy 560 16.1 Synopsis 560 16.2 Magnetic Fields, Magnetic Dipoles, and Electric Charges 561 16.3 Zeeman Spectroscopy 564 16.4 Electron Spin Resonance 567 16.5 Nuclear Magnetic Resonance 571 16.6 Summary 582 Exercises 584 17 Statistical Thermodynamics: Introduction 586 17.1 Synopsis 586 17.2 Some Statistics Necessities 587 17.3 The Ensemble 590 17.4 The Most Probable Distribution: Maxwell-Boltzmann Distribution 593 17.5 Thermodynamic Properties from Statistical Thermodynamics 600 17.6 The Partition Function: Monatomic Gases 604 17.7 State Functions in Terms of Partition Functions 608 17.8 Summary 613 Exercises 614 18 More Statistical Thermodynamics 616 18.1 Synopsis 617 18.2 Separating q: Nuclear and Electronic Partition Functions 617 18.3 Molecules: Electronic Partition Functions 621 18.4 Molecules: Vibrations 623 18.5 Diatomic Molecules: Rotations 628 18.6 Polyatomic Molecules: Rotations 634 18.7 The Partition Function of a System 636 18.8 Thermodynamic Properties of Molecules from Q 637 18.9 Equilibria 640 18.10 Crystals 644 18.11 Summary 648 Exercises 649 xii C O N T E N T S Copyright 2011 Cengage Learning. All Rights Reserved. May not be copied, scanned, or duplicated, in whole or in part. 19 The Kinetic Theory of Gases 651 19.1 Synopsis 651 19.2 Postulates and Pressure 652 19.3 Definitions and Distributions of Velocities of Gas Particles 656 19.4 Collisions of Gas Particles 666 19.5 Effusion and Diffusion 671 19.6 Summary 677 Exercises 678 20 Kinetics 680 20.1 Synopsis 680 20.2 Rates and Rate Laws 681 20.3 Characteristics of Specific Initial Rate Laws 685 20.4 Equilibrium for a Simple Reaction 694 20.5 Parallel and Consecutive Reactions 696 20.6 Temperature Dependence 702 20.7 Mechanisms and Elementary Processes 706 20.8 The Steady-State Approximation 710 20.9 Chain and Oscillating Reactions 714 20.10 Transition-State Theory 719 20.11 Summary 725 Exercises 726 21 The Solid State: Crystals 731 21.1. Synopsis 731 21.2 Types of Solids 732 21.3 Crystals and Unit Cells 733 21.4 Densities 738 21.5 Determination of Crystal Structures 740 21.6 Miller Indices 744 21.7 Rationalizing Unit Cells 752 21.8 Lattice Energies of Ionic Crystals 755 21.9 Crystal Defects and Semiconductors 759 21.10 Summary 760 Exercises 762 22 Surfaces 765 22.1 Synopsis 765 22.2 Liquids: Surface Tension 766 22.3 Interface Effects 771 22.4 Surface Films 777 22.5 Solid Surfaces 778 22.6 Coverage and Catalysis 783 C O N T E N T S xiii Copyright 2011 Cengage Learning. All Rights Reserved. May not be copied, scanned, or duplicated, in whole or in part. 22.7 Summary 788 Exercises 790 Appendixes 792 1 Useful Integrals 792 2 Thermodynamic Properties of Various Substances 794 3 Character Tables 797 4 Infrared Correlation Tables 802 5 Nuclear Properties 805 Answers to Selected Exercises 806 Photo Credits 817 Index 819 |
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