The subject of thermodynamics was being developed on a postulatory basis long before we understood the nature or behavior of the elementary constituents of matter. As we became more familiar with these constituents, we were still slow to place our trust in the "new" field of quantum mechanics, which was telling us that their behaviors could be described correctly and accurately using probabilities and statistics. The influence of this historical sequence has lingered in our traditional thermodynamics curriculum. Until recently, we continued to teach an introductory course using the more formal and abstract postulatory approach. Now, however, there is a growing feeling that the statistical approach is more effective. It demonstrates the firm physical and statistical basis of thermodynamics by showing how the properties of macroscopic systems are direct consequences of the behaviors of their elementary constituents. An added advantage of this approach is that it is easily extended to include some statistical mechanics in an introductory course. It gives the student a broader spectrum of skills as well as a better understanding of the physical bases. This book is intended for use in the standard junior or senior undergraduate course in thermodynamics, and it assumes no previous knowledge of the subject. It introduces the subject as simply and succinctly as possible, with enough applications to indicate the relevance of the results but not so many as might risk losing the student in details. There are many advanced books of high quality that can help the interested student probe more deeply into the subject and its more specialized applications. It tries to tie everything straight to fundamental concepts, and i avoid "slick tricks" and the "pyramiding" of results. It remains focused on the basic ideas and physical causes, because it believes this will help students better understand, retain, and apply the tools and results that we develop. This book is intended for use in the standard junior or senior undergraduate course in thermodynamics, and it assumes no previous knowledge of the subject. It tries to introduce the subject as simply and succinctly as possible, with enough applications to indicate the relevance of the results but not so many as might risk losing the student in details. This introductory textbook for standard undergraduate courses in thermodynamics has been completely rewritten to explore a greater number of topics, more clearly and concisely. Starting with an overview of important quantum behaviours, the book teaches students how to calculate probabilities in order to provide a firm foundation for later chapters. It introduces the ideas of classical thermodynamics and explores them both in general and as they are applied to specific processes and interactions. The remainder of the book deals with statistical mechanics.
Prof. Alan Herries Wilson is a professor of physics at California Polytechnic State University and has worked there for 22 years. He has spent time at the University of Washington, Harvard, the University of North Carolina, and the University of Michigan. As well as having written the many books on Statistical Mechanics, he has also written books on ocean science. He is a well-known researcher in statistical mechanics who has made significant contributions to this field. His book offers a fresh perspective on the foundations of statistical thermodynamics. It includes a number of new results and novel derivations, and provides an intriguing alternative to existing monographs. Especially of note are the simple graphs and figures that illustrate the text throughout and the logical organization of the material. Thermodynamics and Statistical Mechanics will be an invaluable and comprehensive reference manual for research scientists. This text can be used as a complement to existing texts and for supplementary reading.
| Preface 1. Introduction 1.1 Thermodynamic States 2. Laws of Thermodynamics 2.1 Zeroth law of thermodynamics 2.2 First Law of Thermodynamics 2.3 Second Law of Thermodynamics 2.4 Entropy 2.5 Third law of thermodynamics 3. System State 3.1 Control volume 3.2 Ideal Gas 3.3 Real gas 4. System Processes 4.1 Isobaric Process 4.2 Isochoric Process 4.3 Isothermal Process 4.4 Adiabatic Process 4.5 Polytropic Process 5. System Properties 5.1 Introduction to Entropy 5.2 Entropy 5.3 Thermodynamic Temperature 5.4 Volume 6. Material Properties 6.1 Heat Capacity 6.2 Compressibility 6.3 Thermal Expansion 7. Potentials 7.1 Thermodynamic Potential 7.2 Enthalpy 8. Fundamental Thermodynamic Relation 8.1 Carnot cycle 9. Philosophy 9.1 Heat Death Paradox 9.2 Loschmidt’s Paradox 10. Energy In Thermal Physics 10.1 Temperature And Energy 10.2 Heat And Work |
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$280.00