Physics On Ultracold Quantum Gases

Physics On Ultracold Quantum Gases

ISBN-10:
9813270756
ISBN-13:
9789813270756
Pub. Date:
01/09/2019
Publisher:
World Scientific Publishing Company, Incorporated
ISBN-10:
9813270756
ISBN-13:
9789813270756
Pub. Date:
01/09/2019
Publisher:
World Scientific Publishing Company, Incorporated
Physics On Ultracold Quantum Gases

Physics On Ultracold Quantum Gases

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Overview

This book derives from the content of graduate courses on cold atomic gases, taught at the Renmin University of China and at the University of Science and Technology of China. It provides a brief review on the history and current research frontiers in the field of ultracold atomic gases, as well as basic theoretical description of few- and many-body physics in the system. Starting from the basics such as atomic structure, atom-light interaction, laser cooling and trapping, the book then moves on to focus on the treatment of ultracold Fermi gases, before turning to topics in quantum simulation using cold atoms in optical lattices.The book would be ideal not only for professionals and researchers, but also for familiarizing junior graduate students with the subject and aiding them in their preparation for future study and research in the field.

Product Details

ISBN-13: 9789813270756
Publisher: World Scientific Publishing Company, Incorporated
Publication date: 01/09/2019
Series: Peking University-world Scientific Advanced Physics Series , #8
Pages: 288
Product dimensions: 6.00(w) x 9.00(h) x 0.69(d)

Table of Contents

Preface v

Chapter 1 Introduction 1

References 7

Part I Toward Strongly Correlated Systems 9

Chapter 2 Atomic Structure 11

2.1 Electronic levels of alkali-metal atoms 11

2.2 Fine structure 13

2.3 Hyperfine structure 14

2.4 Zeeman effect 16

Chapter 3 Atom-Light Interaction 21

3.1 Atom-light interaction Hamiltonian 21

3.2 Spontaneous emission 25

3.3 Stimulated absorption and emission 29

3.4 The optical Bloch equations 34

3.5 Light forces on atoms 37

References 41

Chapter 4 Laser Cooling and Trapping 43

4.1 Beam deceleration 44

4.2 Doppler cooling 47

4.3 Evaporative cooling 50

4.4 Magnetic trapping 55

4.5 Optical trapping 59

References 62

Chapter 5 Interaction Between Atoms 65

5.1 Interaction potential between alkali-metal atoms 66

5.2 Two-atom scattering in free space 69

5.3 Effective interaction 74

References 81

Chapter 6 Feshbach Resonance 83

6.1 Basic physics of the Feshbach resonance 84

6.2 Magnetic Feshbach resonance 92

6.3 Optical Feshbach resonance 97

References 100

Part II Ultracold Fermi Gases 103

Chapter 7 Background and Experimental Achievements 105

7.1 Brief introduction to experimental achievements 106

7.2 BCS-BEC crossover 113

7.3 Overview 117

References 118

Chapter 8 BCS-BEC Crossover 121

8.1 Cooper instability 121

8.2 BCS theory 123

8.3 Description of BCS-BEC crossover on the mean-field level 130

8.4 Feshbach resonance and the two-channel model 136

8.5 Narrow Feshbach resonance 143

8.6 BCS-BEC crossover in a harmonic trapping potential 145

References 151

Chapter 9 Beyond-Mean-Field Descriptions 153

9.1 NSR scheme 154

9.2 Path integral and saddle point expansion 157

9.3 Extension of the NSR scheme based on the T-matrix formalism 165

References 170

Chapter 10 Polarized Fermi Gas 173

10.1 Mean-field results 175

10.2 Fulde-Ferrell-Larkin-Ovchinnikov (FFLO) phase 180

10.3 Polarized Fermi gas in a trap 182

References 184

Chapter 11 Synthetic Gauge Field 187

11.1 Implementing synthetic gauge field 187

11.2 Synthetic spin-orbit coupling 191

11.3 Exotic pairing states under spin-orbit coupling 195

References 201

Part III Quantum Simulation with Cold Atoms 203

Chapter 12 Optical Lattice and Band Structure 205

12.1 Construction of optical lattices 206

12.2 Band structure 210

References 213

Chapter 13 Simulation of the Bose-Hubbard Model 215

13.1 Introduction to the Bose-Hubbard model 215

13.2 Simulation of the Bose-Hubbard model in optical lattices 218

References 223

Chapter 14 Dynamical Process 225

14.1 Quench dynamics in the Bose-Hubbard model 225

14.2 Thermalization in an optical lattice 229

References 239

Chapter 15 Disordered Systems 241

15.1 Disorder in free space 242

15.2 Disorder in an optical lattice 244

References 250

Chapter 16 Simulation of Spin Systems 253

16.1 General phases of spin systems 253

16.2 Simulate spin systems in an optical lattice 264

References 274

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