Book Description
What happens to light when it is trapped in a box?
Cavity Quantum Electrodynamics addresses a fascinating question in physics: what happens to light, and in particular to its interaction with matter, when it is trapped inside a box? With the aid of a modelbuilding approach, readers discover the answer to this question and come to appreciate its important applications in computing, cryptography, quantum teleportation, and optoelectronics. Instead of taking a traditional approach that requires readers to first master a series of seemingly unconnected mathematical techniques, this book engages the readers' interest and imagination by going straight to the point, introducing the mathematics along the way as needed. Appendices are provided for the additional mathematical theory.
Researchers, scientists, and students of modern physics can refer to Cavity Quantum Electrodynamics and examine the field thoroughly. Several key topics covered that readers cannot find in any other quantum optics book include:
Introduction to the problem of the "vacuum catastrophe" and the cosmological constant
Detailed uptodate account of cavity QED lasers and thresholdless lasing
Examination of cavities with movable walls
Firstprinciples discussion about cavity QED in open cavities
Pedagogical account of microscopic quantization in dielectrics
Complementing the coverage of the most advanced theory and techniques, the author provides context by discussing the historical evolution of the field and its discoveries. In that spirit, "recommended reading," provided in each chapter, leads readers to both contemporary literature as well as key historical papers.
Despite being one of many specialties within physics, cavity quantum electrodynamics serves as a window to many of the fundamental issues of physics. Cavity Quantum Electrodynamics will serve as an excellent resource for advanced undergraduate quantum mechanics courses as well as for graduate students, researchers, and scientists who need a comprehensive introduction to the field.
Table of Contents
 Cover Page
 Title Page
 Copyright
 Dedication
 Contents
 Preface
 Acknowledgments
 1: Introduction

2: Fiat Lux! A free tasting of field quantization
 2.1 A BRIEF REVIEW OF QUANTUM MECHANICS: HOW TO QUANTIZE A THEORY
 2.2 WHY THE RADIATION FIELD IS SPECIAL
 2.3 WHAT IS A CAVITY AND HOW DO WE FIND ITS MODES?
 2.4 CANONICAL QUANTIZATION OF THE RADIATION FIELD
 2.5 A PHYSICAL EFFECT DUE TO ZEROPOINT FLUCTUATIONS: THE CASIMIR FORCE
 RECOMMENDED READING
 Problems

3: The alternative free tasting: First quantization of light and the photon's wavefunction
 3.1 THE PROBLEM OF THE POSITION OPERATOR IN RELATIVISTIC QUANTUM MECHANICS
 3.2 EXTREME QUANTUM THEORY OF LIGHT WITH A TWIST: PROCA EQUATIONS FOR A MASSIVE PARTICLE OF SPIN 1
 3.3 THE PROBLEM WITH THE WAVEFUNCTION IN CONFIGURATION SPACE
 3.4 BACK TO VECTOR NOTATION
 3.5 THE LIMIT OF VANISHING REST MASS
 3.6 SECOND QUANTIZATION OF THE EXTREME QUANTUM THEORY OF LIGHT
 RECOMMENDED READING
 Problems
 4: A box of photons
 5: Let matter be!
 6: Spontaneous emission: From irreversible decay to Rabi oscillations 1

7: Macroscopic QED: Quantum electrodynamics in material media
 7.1 A SIMPLE MODEL FOR QED IN MATERIAL MEDIA: THE DIELECTRIC JCM
 7.2 HOPFIELD'S POLARITON–PHOTON DRESSED EXCITATIONS
 7.3 QUANTUM NOISE GENERATED BY MATTER AND MACROSCOPIC AVERAGES: IS A DIELECTRIC PERMITTIVITY ENOUGH?
 7.4 HOW A MACROSCOPIC DESCRIPTION IS POSSIBLE
 7.5 IF THERE IS DISPERSION, THERE MUST ALSO BE ABSORPTION SOMEWHERE: THE KRAMERS–KRONIG DISPERSION RELATION
 7.6 INCLUDING ABSORPTION IN THE DIELECTRIC JCM
 7.7 DIELECTRIC PERMITTIVITY
 7.8 THE FULL QUANTUM THEORY: HUTTNER AND BARNETT'S IMPROVEMENT OF THE HOPFIELD MODEL
 RECOMMENDED READING
 Problems

8: The maser, the laser, and their cavity QED cousins
 8.1 THE ASER IDEA: AMPLIFICATION BY STIMULATED EMISSION OF RADIATION
 8.2 HOW TO ADD NOISE: BROWNIAN MOTION; THE LANGEVIN EQUATION; ITO'S AND STRATONOVICH'S STOCHASTIC CALCULUS
 8.3 RATE EQUATIONS WITH NOISE: THE EFFECT OF SPONTANEOUS EMISSION
 8.4 IDEAL LASER LIGHT: WHAT QUANTUM STATE OF LIGHT WOULD BE GENERATED IN AN IDEAL LASER?
 8.5 THE SINGLEATOM MASER
 8.6 THE THRESHOLDLESS LASER: A STAGEPOST ON THE ROAD FROM MICROMASER TO LASER
 8.7 THE ONEANDTHESAME ATOM LASER
 RECOMMENDED READING
 Problems
 9: What is a mode of an open cavity?
 Appendix A: Modes of a perfectly conducting closed cavity: A quick review
 Appendix B: Perfect cavity boundary conditions
 Appendix C: Quaternions and special relativity
 Appendix D: The Baker–Hausdorff formula
 Appendix E: Trade secrets: Tools for dealing with vectors and vector identities
 Appendix F: The Good, the Bad, and the Ugly: Principal Parts, Step and Delta Functions
 References
 Index
Product Information
 Title: Cavity Quantum Electrodynamics: The Strange Theory of Light in a Box
 Author(s):
 Release date: December 2004
 Publisher(s): WileyInterscience
 ISBN: 9780471443384