1st Edition
Waves, Particles and Fields Introducing Quantum Field Theory
Chapter 1. Mathematics
Chapter 2. Waves
Chapter 3. Electromagnetic Waves
Chapter 4. Kinetic Theory of Gases
Chapter 5. Quantum Theory
Chapter 6. The Bohr Atom
Chapter 7. The New Quantum Theory
Chapter 8. Relativity
Chapter 9. Advanced Mathematics
Chapter 10. Relativistic Quantum Mechanics
Chapter 11. Probability Flow
Chapter 12. Wave Functions and Spinors
Chapter 13. Classical Field Theory
Chapter 14. Lorentz Invariance
Chapter 15. The Electromagnetic Field
Chapter 16. The Quantum Field
Chapter 17. Feynman Diagrams
Chapter 18. Conclusion
Biography
Anthony Fischer-Cripps is an experienced lecturer in physics and a former senior scientist at CSIRO, Australian’s national scientific research institution. Dr. Cripps has published several student books over the years as well as undertaking fundamental research in applied physics in the field of nanoindentation.
"Formal initiation into 20th-century physics occurs when one begins a systematic study of relativity and quantum mechanics. There are any number of standard texts and lecture notes on these two foundations of today’s physics. Unlike the classic texts of Leonard Schiff, David Bohm, David Griffiths, and Albert Messiah, this volume offers a sturdy steppingstone to the grand edifice: it is well organized and clearly presented, with only brief introductory notes to the topics.
Fischer-Cripps (formerly, Univ. of Technology, Sydney) presents the student with all the required mathematics in a succinct way. A brief discussion of vector space would have been a worthwhile addition. Those who have not previously seen scalars, vectors, and complex numbers need to do some serious work before venturing into this text, which only reviews these concepts. Readers with some acquaintance with the basics will learn the concepts, structure, and bases of the physics that is essential for an understanding of quantum field theory, leading to Feynman diagrams. This book can serve as an excellent text not only for students who plan to specialize eventually in high-powered theoretical physics, but also for those whose goal may be to work in nuclear physics, astrophysics, solid-state physics, and the like. All college libraries should own this work.
Summing Up: Highly recommended. Upper-division undergraduates. Students enrolled in two-year technical programs."
—V. V. Raman, emeritus, Rochester Institute of Technology in CHOICE, September 2020
