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Contents
An Examination of Atom--Field Interactions
G. Andrew Antonelli
Senior Honors Thesis
Davidson College
Davidson, NC
Contents
List of Figures
Acknowledgments
Preface
The Lorentz Oscillator Model
The Two--State Atom and Semiclassical Theory
Theory
Introduction
The Two--State Atom: Basics
Schrödinger Derivation of the Semiclassical Equations
Assumptions and Approximations
The Density Matrix
Density Matrix Derivation of the Semiclassical Equations
Collisions and Spontaneous Emission
The Complete Semiclassical Model
The Bloch Vector Picture
About BlochApp
Introduction
Algorithm and Parameters
Simulations
Rabi Oscillations
The Bloch Vector
Atomic Parameters
Inelastic Collisions
Elastic Collisions
Collisions Compared
Spontaneous Emission
Off Resonance
Lifetimes and Free Induction Decay
The Area Theorem
Pulses
Other Functions
The Rotating Wave Approximation
Frequency Scans
The Quantum Field
Theory
Introduction
The Harmonic Oscillator and the Quantum Field
The Master Equation
Photon Statistics
Analyzing the Field
Radiation Sources
The Fock State
The Thermal State
Minimum Uncertainty States
The Coherent State
The Squeezed Coherent State
About FieldApp
Introduction
Algorithm and Parameters
Simulations
Photon Statistics Visualized
Fock and Thermal States
Coherent States
Coherent Squeezed State
The Reservoir Equilibrium and Absolute Zero
The Decay of a Fock State
The Decay of Coherent States
The Decay of Squeezed States
The Jaynes--Cummings Model and Beyond
Theory
Introduction
Quantized Atom--Field Coupling
The Coupled Density Matrix
About JCapp and QEDapp
Introduction
JCapp Algorithm and Parameters
QEDapp Algorithm and Parameters
Simulations
Spontaneous and Stimulated Emission
The Rotating Wave Approximation Revisited
The Atom and Complex Fields
A Thermal Field
A Coherent State
A Squeezed State
Epilogue
Appendix
References
Index
About this document ...
Andy Antonelli
Wed May 17 14:34:24 EDT 1995