Contemporary Kinetic Theory of Matter
Kinetic theory provides a microscopic description of many observable, macroscopic processes and has a wide range of important applications in physics, astronomy, chemistry, and engineering. This powerful, theoretical framework allows a quantitative treatment of many non-equilibrium phenomena such as transport processes in classical and quantum fluids. This book describes in detail the Boltzmann equation theory, obtained in both traditional and modern ways. Applications and generalizations describing non-equilibrium processes in a variety of systems are also covered, including dilute and moderately dense gases, particles in random media, hard sphere crystals, condensed Bose-Einstein gases, and granular materials. Fluctuation phenomena in non-equilibrium fluids, and related non-analyticities in the hydrodynamic equations are also discussed in some detail. A thorough examination of many topics concerning time dependent phenomena in material systems, this book describes both current knowledge as well as future directions of the field.
- Carefully discusses major developments in modern kinetic theory for multidisciplinary applications
- The problems of applying fundamental methods of non-equilibrium statistical mechanics to fluid systems are discussed, to facilitate future contributions to the topic
- A comparison of theoretical predictions and results of experimental studies illustrates the importance of the theory in the broader context of physics and engineering
Reviews & endorsements
‘This substantial volume provides a detailed mathematical framework for the qualitative treatment of non-equilibrium processes in classical and quantum fluids, including those found in astrophysical situations.’ The Observatory
Product details
June 2021Hardback
9780521895477
590 pages
250 × 175 × 40 mm
1.32kg
Available
Table of Contents
- 1. Introduction
- 2. The Boltzmann equation 1: Fundamentals
- 3. The Boltzmann equation 2: Fluid dynamics
- 4. Dilute gas mixtures
- 5. The dilute Lorentz gas
- 6. Basic tools
- 7. Enskog theory: Dense hard sphere systems
- 8. The Boltzmann-Langevin equation
- 9. Granular gases
- 10. Quantum gases
- 11. Cluster expansions
- 12. Divergences and resummations
- 13. Long time tails
- 14. Non-equilibrium steady states
- 15. What's next
- Bibliography
- Index.