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9780198566724

Quantum Optics An Introduction

by Fox, Mark
  • ISBN13:

    9780198566724

  • ISBN10:

    0198566727

  • eBook ISBN(s):

    9780191524257

  • Format: Hardcover
  • Copyright: 2006-06-22
  • Publisher: Oxford University Press
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Summary

This title includes the following features: Modern text on quantum opticsfor advanced undergraduate students; Explanations based primarily on intuitivephysical understanding rather than mathematical derivations.; Strong emphasis onexperimental demonstrations of quantum optical phenomena, in both atomic andcondensed matter physics.; Broad scope of topics encompassing photon statistics,Hanbury Brown-Twiss experiments, squeezed light, Rabi oscillations, cavity QED,laser cooling, Bose-Einstein condensation, quantum information processing,quantum cryptography, quantum computing, entangled states, quantumteleportation.; Numerous worked examples included, together with 10-15 exercises per chapter.;Background chapters provided covering prior knowledge that has been assumed inrevision format.; Six appendices included to supplement the main text.

Author Biography


Dr A M Fox is Reader in Physics, Dept of Physics and Astronomy, University of Sheffield, Sheffield S3 7RH, UK.

Table of Contents

List of symbols
xv
List of abbreviations
xviii
I Introduction and background
1(72)
Introduction
3(5)
What is quantum optics?
3(1)
A brief history of quantum optics
4(2)
How to use this book
6(2)
Classical optics
8(18)
Maxwell's equations and electromagnetic waves
8(5)
Electromagnetic fields
8(2)
Maxwell's equations
10(1)
Electromagnetic waves
10(2)
Polarization
12(1)
Diffraction and interference
13(3)
Diffraction
13(2)
Interference
15(1)
Coherence
16(3)
Nonlinear optics
19(7)
The nonlinear susceptibility
19(1)
Second-order nonlinear phenomena
20(3)
Phase matching
23(3)
Quantum mechanics
26(22)
Formalism of quantum mechanics
26(9)
The Schrodinger equation
26(2)
Properties of wave functions
28(2)
Measurements and expectation values
30(1)
Commutators and the uncertainty principle
31(1)
Angular momentum
32(2)
Dirac notation
34(1)
Quantized states in atoms
35(6)
The gross structure
35(4)
Fine and hyperfine structure
39(2)
The Zeeman effect
41(1)
The harmonic oscillator
41(2)
The Stern--Gerlach experiment
43(2)
The band theory of solids
45(3)
Radiative transitions in atoms
48(25)
Einstein coefficients
48(3)
Radiative transition rates
51(3)
Selection rules
54(2)
The width and shape of spectral lines
56(2)
The spectral lineshape function
56(1)
Lifetime broadening
56(1)
Collisional (pressure) broadening
57(1)
Doppler broadening
58(1)
Line broadening in solids
58(1)
Optical properties of semiconductors
59(2)
Lasers
61(12)
Laser oscillation
61(3)
Laser modes
64(3)
Laser properties
67(6)
II Photons
73(92)
Photon statistics
75(30)
Introduction
75(1)
Photon-counting statistics
76(2)
Coherent light: Poissonian photon statistics
78(4)
Classification of light by photon statistics
82(1)
Super-Poissonian light
83(4)
Thermal light
83(3)
Chaotic (partially coherent) light
86(1)
Sub-Poissonian light
87(1)
Degradation of photon statistics by losses
88(1)
Theory of photodetection
89(5)
Semi-classical theory of photodetection
90(3)
Quantum theory of photodetection
93(1)
Shot noise in photodiodes
94(5)
Observation of sub-Poissonian photon statistics
99(6)
Sub-Poissonian counting statistics
99(2)
Sub-shot-noise photocurrent
101(4)
Photon antibunching
105(21)
Introduction: the intensity interferometer
105(3)
Hanbury Brown--Twiss experiments and classical intensity fluctuations
108(3)
The second-order correlation function g(2)(τ)
111(2)
Hanbury Brown--Twiss experiments with photons
113(2)
Photon bunching and antibunching
115(2)
Coherent light
116(1)
Bunched light
116(1)
Antibunched light
117(1)
Experimental demonstrations of photon antibunching
117(3)
Single-photon sources
120(6)
Coherent states and squeezed light
126(25)
Light waves as classical harmonic oscillators
126(3)
Phasor diagrams and field quadratures
129(2)
Light as a quantum harmonic oscillator
131(1)
The vacuum field
132(2)
Coherent states
134(1)
Shot noise and number--phase uncertainty
135(3)
Squeezed states
138(1)
Detection of squeezed light
139(3)
Detection of quadrature-squeezed vacuum states
139(3)
Detection of amplitude-squeezed light
142(1)
Generation of squeezed states
142(4)
Squeezed vacuum states
142(2)
Amplitude-squeezed light
144(2)
Quantum noise in amplifiers
146(5)
Photon number states
151(14)
Operator solution of the harmonic oscillator
151(3)
The number state representation
154(2)
Photon number states
156(1)
Coherent states
157(3)
Quantum theory of Hanbury Brown--Twiss experiments
160(5)
III Atom--photon interactions
165(76)
Resonant light--atom interactions
167(27)
Introduction
167(1)
Preliminary concepts
168(4)
The two-level atom approximation
168(1)
Coherent superposition states
169(2)
The density matrix
171(1)
The time-dependent Schrodinger equation
172(2)
The weak-field limit: Einstein's B coefficient
174(3)
The strong-field limit: Rabi oscillations
177(10)
Basic concepts
177(3)
Damping
180(2)
Experimental observations of Rabi oscillations
182(5)
The Bloch sphere
187(7)
Atoms in cavities
194(22)
Optical cavities
194(3)
Atom--cavity coupling
197(3)
Weak coupling
200(6)
Preliminary considerations
200(1)
Free-space spontaneous emission
201(1)
Spontaneous emission in a single-mode cavity: the Purcell effect
202(2)
Experimental demonstrations of the Purcell effect
204(2)
Strong coupling
206(5)
Cavity quantum electrodynamics
206(3)
Experimental observations of strong coupling
209(2)
Applications of cavity effects
211(5)
Cold atoms
216(25)
Introduction
216(2)
Laser cooling
218(12)
Basic principles of Doppler cooling
218(3)
Optical molasses
221(3)
Sub-Doppler cooling
224(2)
Magneto-optic atom traps
226(1)
Experimental techniques for laser cooling
227(2)
Cooling and trapping of ions
229(1)
Bose--Einstein condensation
230(6)
Bose--Einstein condensation as a phase transition
230(2)
Microscopic description of Bose--Einstein condensation
232(1)
Experimental techniques for Bose--Einstein condensation
233(3)
Atom lasers
236(5)
IV Quantum information processing
241(105)
Quantum cryptography
243(18)
Classical cryptography
243(2)
Basic principles of quantum cryptography
245(4)
Quantum key distribution according to the BB84 protocol
249(4)
System errors and identity verification
253(2)
Error correction
253(1)
Identity verification
254(1)
Single-photon sources
255(1)
Practical demonstrations of quantum cryptography
256(5)
Free-space quantum cryptography
257(1)
Quantum cryptography in optical fibres
258(3)
Quantum computing
261(35)
Introduction
264(3)
Quantum bits (qubits)
267(3)
The concept of qubits
267(2)
Bloch vector representation of single qubits
269(1)
Column vector representation of qubits
270(1)
Quantum logic gates and circuits
270(9)
Preliminary concepts
270(2)
Single-qubit gates
272(2)
Two-qubit gates
274(1)
Practical implementations of qubit operations
275(4)
Decoherence and error correction
279(2)
Applications of quantum computers
281(7)
Deutsch's algorithm
281(2)
Grover's algorithm
283(3)
Shor's algorithm
286(1)
Simulation of quantum systems
287(1)
Quantum repeaters
287(1)
Experimental implementations of quantum computation
288(4)
Outlook
292(4)
Entangled states and quantum teleportation
296(50)
Entangled states
296(2)
Generation of entangled photon pairs
298(3)
Single-photon interference experiments
301(3)
Bell's theorem
304(6)
Introduction
304(1)
Bell's inequality
305(3)
Experimental confirmation of Bell's theorem
308(2)
Principles of teleportation
310(3)
Experimental demonstration of teleportation
313(3)
Discussion
316(5)
Appendices
A Poisson statistics
321(3)
B Parametric amplification
324(6)
B.1 Wave propagation in a nonlinear medium
324(2)
B.2 Degenerate parametric amplification
326(4)
C The density of states
330(3)
D Low-dimensional semiconductor structures
333(6)
D.1 Quantum confinement
333(2)
D.2 Quantum wells
335(2)
D.3 Quantum dots
337(2)
E Nuclear magnetic resonance
339(7)
E.1 Basic principles
339(2)
E.2 The rotating frame transformation
341(3)
E.3 The Bloch equations
344(2)
F Bose--Einstein condensation
346(6)
F.1 Classical and quantum statistics
346(2)
F.2 Statistical mechanics of Bose--Einstein condensation
348(2)
F.3 Bose--Einstein condensed systems
350(2)
Solutions and hints to the exercises 352(8)
Bibliography 360(9)
Index 369

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