This new edition of Robert G. Mortimer's Physical Chemistry has been thoroughly revised for use in a full year course in modern physical chemistry. In this edition, Mortimer has included recent developments in the theories of chemical reaction kinetics and molecular quantum mechanics, as well as in the experimental study of extremely rapid chemical reactions. While Mortimer has made substantial improvements in the selection and updating of topics, he has retained the clarity of presentation, the integration of description and theory, and the level of rigor that made the first edition so successful.
@bul:* Emphasizes clarity; every aspect of the first edition has been examined and revised as needed to make the principles and applications of physical chemistry as clear as possible.
- Proceeds from fundamental principles or postulates and shows how the consequences of these principles and postulates apply to the chemical and physical phenomena being studied.
- Encourages the student not only to know the applications in physical chemistry but to understand where they come from.
- Treats all topics relevant to undergraduate physical chemistry.
Undergraduate and graduate students of Physical Chemistry, professional chemists, students of Physics, Biology, and Engineering.
Chapter 1 Systems, States, and Processes
1.1 Scientific Inquiry
1.2 Systems and States
1.3 Units of Measurement. SI Units 1.4 State Functions 1.5 The Relationship Between Macrostates and Microstates 1.6 Processes Problems
Chapter 2 The Equilibrium Macroscopic States of Gases and Liquids
2.1 Mathematical Functions and the Equilibrium Macroscopic State of a Simple System
2.2 Real Liquids and Solids
2.3 Real Gases
2.4 The Coexistence of Phases and the Critical Point
Chapter 3 Work, Heat, and Energy: The First Law of Thermodynamics
3.1 Work and the State of a System
3.3 Internal Energy; The First Law. 3.4 Calculation of Amounts of Heat and Energy Changes 3.5 Enthalpy - A Convenience Variable
3.6 Calculation of Enthalpy Changes for Non-chemical Processes
3.7 Calculation of Enthalpy Changes for a Class of Chemical Reactions
3.8 Energy Changes of Chemical Reactions
Chapter 4 The Second and Third Laws of Thermodynamics: Entropy
4.1 The Second Law of Thermodynamics and the Carnot Heat Engine
4.2 The Mathematical Statement of the Second Law. Entropy. 4.3 The Calculation of Entropy Changes
4.4 Statistical Entropy
4.5 The Third Law of Thermodynamics and Absolute Entropies Problems
Chapter 5 The Thermodynamics of Real Systems
5.1 Criteria for Spontaneous Processes and for Equilibrium.
The Gibbs and Helmholtz Energies.
5.2 Fundamental Relations for Closed Simple Systems
5.3 Gibbs Energy Calculations
5.4 The Description of Multicomponent and Open Systems 5.5 Additional Useful Thermodynamic Identities 5.6 Euler's Theorem and the Gibbs-Duhem Relation
Chapter 6 Phase Equilibrium
6.1 The Fundamental Fact of Phase Equilibrium.
6.2 The Gibbs Phase Rule
6.3 Phase Equilibria in a One-Component System 6.4 The Gibbs Energy and Phase Transitions.
6.5 Surface Structure and Thermodynamics
6.6 Surfaces in Multicomponent Systems
Chapter7 Multicomponent Systems
7.1 Ideal Solutions
7.2 Henry's Law and Ideally Dilute Nonelectrolyte Solutions 7.3 The Activity and the Description of General Systems 7.4 Activity Coefficients in Electrolyte Solutions
7.5 Phase Diagrams for Nonideal Mixtures
7.6 Colligative Properties Problems
Chapter 8 Chemical Equilibrium
8.1 Gibbs Energy Changes and Equilibria of Chemical Reactions: The Equilibrium Constant.
8.2 Reactions involving Gases and Pure Substances.
8.3 Chemical Equilibrium in Solution
8.4 Equilibria in Solutions of Strong Electrolytes. 8.5 Acid-Base Equilibrium Calculations.
8.6 Temperature and Pressure Dependence of Equilibrium Constants: The Principle of le Chatelier. 8.7 Chemical Reactions and Biological Systems. Problems
Chapter 9 The Thermodynamics of Electrochemical Systems
9.1 The Chemical Potential and the Electric Potential
9.2 Electrochemical Cells at Equilibrium
9.3 Half-Cell Potentials and Cell Potentials 9.4 The Determination of Activity Coefficients of Electrolytes 9.5 Thermodynamic Information from Electrochemistry
Chapter 10 Gas Kinetic Theory. The Molecular Theory of Dilute Gases at Equilibrium
10.1 The Model System for a Dilute Gas
10.2 The Velocity Probability Distribution
10.3 The Distribution of Molecular Speeds
10.4 The Pressure of an Ideal Gas 10.5 Wall Collisions and Effusion 10.6 The Model System with Potential Energy 10.7 The Hard Sphere Gas
10.9 The Molecular Structure of Liquids
Chapter 11 Transport Processes
11.1 The Macroscopic Description of Nonequilibrium States
11.2 Transport Processes
11.3 Transport Processes in the Hard Sphere Gas
11.4 The Structure of Liquids and Transport Processes in Liquids
11.5 Transport in Electrolyte Solutions
Chapter 12 The Rates of Chemical Reactions
12.1 The Macroscopic Description of Chemically Reacting Systems
12.2 Forward Reactions with one Reactant.
12.3 Forward Reactions With More than One Reactant 12.4 Inclusion of a Reverse Reaction. Chemical Equilibrium 12.5 Consecutive Reactions 12.6 The Experimental Study of Fast Reactions
Chapter 13 The Molecular Nature of Chemical Reactions
13.1 Elementary Processes in Gases
13.2 Elementary Reactions in Liquid Solutions
13.3 Reaction Mechanisms and Rate Laws
13.4 Some Additional Mechanisms, Including Chain and Photochemical Mechanisms. Competing Mechanisms 13.5 Catalysis
13.6 The Temperature Dependence of Rate Constants. The Collision Theory of Gaseous Reactions 13.7 Experimental Molecular Study of Chemical Reactions Problems
Chapter 14 The Principles of Quantum Mechanics I: The Schrodinger Equation
14.1 Classical Mechanics
14.2 Properties of Waves in Classical Mechanics.
14.2 The Old Quantum Theory
14.4 DeBroglie Waves and the Schrödinger Equation.
14.5 The Particle in a Box. The Free Particle.
14.6 The Harmonic Oscillator
Chapter 15 The Principles of Quantum Mechanics II: The Postulates of Quantum Mechanics
15.1 The First Two Postulates of Quantum Mechanics.
15.2 Mathematical Operators
15.3 Postulate III. Mathematical Operators in Quantum Mechanics
15.4 Postulate IV. Expectation Values 15.5 Postulate V. The Determination of the State of a System Problems
Chapter 16 The Electronic States of Atoms I: The Hydrogen Atom and the Simple Orbital Approximation for Multi-electron Atoms
16.1 The Central Force Problem and the Hydrogen Atom. Angular Momentum
16.2 The Hydrogen-like Atom
16.3 The Helium Atom in the "Zero-order" Orbital Approximation 16.4 Atoms with More than Two Electrons Problems
Chapter 17 The Electronic States of Atoms II: Higher-Order Approximations for Multi-electron Atoms
17.1 The Variation Method and its Application to the Helium Atom
17.2 The Perturbation Method and its Application to the Helium Atom 17.3 The Self-Consistent Field Method 17.4 Excited States of the Helium Atom 17.5 Atoms with More than Two Electrons Problems
Chapter 18 The Electronic States of Molecules
18.1 The Born-Oppenheimer Approximation. The Hydrogen Molecule Ion.
18.2 LCAO-MO's - Molecular Orbitals That Are Linear Combinations of Atomic Orbitals
18.3 Homonuclear Diatomic Molecules
18.4 Heteronuclear Diatomic Molecules
18.5 Symmetry in Polyatomic Molecules. Groups of Symmetry Operators 18.6 Matrix Representations of Groups 18.7 Electronic Structure of Polyatomic Molecules 18.8 More Advanced Treatments of Molecular Electronic Structure
Chapter 19 Translational, Rotational, and Vibrational States of Atoms and Molecules 19.1 Translational Motions of Atoms 19.2 The Nonelectronic States of Diatomic Molecules 19.3 Rotation and Vibration in Polyatomic Molecules 19.4 The Equilibrium Populations of Molecular States Problems
Chapter 20 Spectroscopy and Photochemistry
20.1 Spectroscopic Study of Energy Levels 20.2 Spectra of Atoms 20.3 Rotational and Vibrational Spectra of Diatomic Molecules 20.4 Electronic Spectra of Diatomic Molecules 20.5 Spectra of Polyatomic Molecules 20.6 Fluorescence, Phosphorescence, and Photochemistry 20.7 Other Types of Spectroscopy 20.8 Magnetic Resonance Spectroscopy 20.9 Fourier Transform Spectroscopy
Chapter 21 Equilibrium Statistical Mechanics 21.1 The Quantum Statistical Mechanics of a Sample System of Four Molecules 21.2 The Probability Distribution for a Dilute Gas 21.3 The Probability Distribution and the Molecular Partition Function 21.4 The Calculation of Molecular Partition Functions 21.5 Calculations of Thermodynamic Functions of Dilute Gases 21.6 Chemical Equilibrium in Dilute Gases 21.7 The Activated Complex Theory of Bimolecular Chemical Reactions in Dilute Gases 21.8 The Canonical Ensemble Problems
Chapter 22 The Structure of Condensed Phases
22.1 General Features of Solids and Liquids
22.3 Crystal Vibrations
22.4 The Electronic Structure of Solids
22.5 Classical Statistical Mechanics
22.6 The Structure of Liquids
22.7 Polymer Formation and Conformation 22.8 Rubber Elasticity 22.9 Polymers in Solution
Chapter 23 Theories of Nonequilibrium Processes
23.1 Theories of Chemical Reactions 23.2 The Molecular Case History of a Chemical Reaction 23.3 Theories of Transport Processes in Fluid Systems
23.4 Nonequilibrium Electrochemistry
23.5 Electrical Conductivity in Solids
23.6 Oscillatory Chemical Reactions and Chemical Chaos Problems
A. Tables of Numerical Data
B. Some Useful Mathematics C. A Short Table of Integrals
D. Classical Mechanics
E. Some Derivations of Thermodynamic Formulas and Methods
F. Some Mathematics in Quantum Mechanics G. The Perturbation Method H. The Hückel Method I. Symbols Used in this Book
- No. of pages:
- © Academic Press 2000
- 21st March 2000
- Academic Press
- eBook ISBN:
Robert Mortimer has been a professor of chemistry at Rhodes College since 1981. He is the recipient of a Woodrow Wilson National Fellowship as well as a National Science Foundation Predoctoral Fellowship.
Rhodes College, Memphis, TN, USA