Synopsis
Some new material has been added to this second edition, whilst leaving the organization of the rest of the book (chapters 1 to 12) unchanged. The new chapters aim to illustrate the basic ideas in three rather distinct and (almost) independent ways. Chapter 13 gives a discussion of chemical thermodynamics, including something about chemical equilibrium. Chapter 14 explores how some interacting systems can still be treated by a simple statistical approach, and Chapter 15 looks at two interesting applications of statistical physics, namely superfluids and astrophysics. The book should be useful for university courses of various lengths and types. Several examples follow: Basic general course for physics undergraduates (20 to 25 lectures): most of Chapters 1 to 12, omitting any of Chapters 7, 10, 11 and 12 if time is short; (2) Short introductory course on statistical ideas (about 10 lectures): Chapters 1, 2 and 3 possibly with material added from Chapters 10 and 11; (3) Following (2), a further short course on statisics of gases (15 lectures); Chapters 4-6 and 8-9, with additional material available from Chapter 14 and 15.2 ; (4) For chemical physics (20 lectures): Chapters 1-7 and 10-13; (5) As an introduction to condensed matter physics (20 lectures): Chapters l-6, 8-12, 14, 15.1.
Présentation de l'éditeur
In this text the author provides a clear introduction to statistical physics, an essential component of any first degree in physics. The treatment itself is self-contained and concentrates on an understanding of the physical ideas, without requiring a high level of mathematical sophistication. A straightforward quantum approach to statistical averaging is adopted from the outset (easier, the author believes, than the classical approach). The initial part of the book is geared towards explaining the equilibrium properties of a simple isolated assembly of particles. Hence several important examples (eg an ideal spin-1/2 solid) can be discussed at an early stage. The treatment of gases gives full coverage to Maxwell-Boltzmann, Fermi-Dirac and Bose-Einstein statistics. In the final chapter the student is introduced to a wider viewpoint and so can begin to deal with more advanced concepts. This book should be of interest to second year undergraduate students taking courses in physics, applied physics, electronics and electrical engineering.
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