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Artificial Gauge Fields with Ultracold Atoms in Optical Lattices (Softcover Reprint of the Original 1st 2016)

Artificial Gauge Fields with Ultracold Atoms in Optical Lattices

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"Artificial Gauge Fields with Ultracold Atoms in Optical Lattices" by Monika Aidelsburger is a physics book focused on Thermal Effects. Best for students, educators, and scientifically curious readers.

This work reports on the generation of artificial magnetic fields with ultracold atoms in optical lattices using laser-assisted tunneling, as well as on the first Chern-number measurement in a non-electronic system.

It starts with an introduction to the Hofstadter model, which describes the dynamics of charged particles on a square lattice subjected to strong magnetic fields. This model exhibits energy bands with non-zero topological invariants called Chern numbers, a property that is at the origin of the quantum Hall effect. The main part of the work discusses the realization of analog systems with ultracold neutral atoms using laser-assisted-tunneling techniques both from a theoretical and experimental point of view. Staggered, homogeneous and spin-dependent flux distributions are generated and characterized using two-dimensional optical super-lattice potentials. Additionally their topological properties are studied via the observation of bulk topological currents.

The experimental techniques presented here offer a unique setting for studying topologically non-trivial systems with ultracold atoms.

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Best For: Researchers and students interested in quantum theory and experimental physics involving ultracold atoms.
Focus: Generation and measurement of artificial magnetic fields and topological properties in ultracold atomic systems using laser-assisted tunneling.
Covers: The Hofstadter model, laser-assisted tunneling techniques, creation of staggered, homogeneous, and spin-dependent flux distributions, and measurement of Chern numbers in optical lattices.
Why It Matters: Provides experimental methods to study topologically non-trivial systems beyond electronic materials, advancing understanding of quantum Hall effects and topological invariants in neutral atom systems.

"Artificial Gauge Fields with Ultracold Atoms in Optical Lattices" by Monika Aidelsburger is a physics book focused on Thermal Effects. Best for students, educators, and scientifically curious readers.

Topic: Thermal Effects

Author: Monika Aidelsburger

Who this is for:

  • Physics students
  • Science-minded readers
  • Readers building technical understanding

Why this book matters: It provides structured coverage of physics concepts in a way that supports deeper understanding and continued study.

This work reports on the generation of artificial magnetic fields with ultracold atoms in optical lattices using laser-assisted tunneling, as well as on the first Chern-number measurement in a non-electronic system.

It starts with an introduction to the Hofstadter model, which describes the dynamics of charged particles on a square lattice subjected to strong magnetic fields. This model exhibits energy bands with non-zero topological invariants called Chern numbers, a property that is at the origin of the quantum Hall effect. The main part of the work discusses the realization of analog systems with ultracold neutral atoms using laser-assisted-tunneling techniques both from a theoretical and experimental point of view. Staggered, homogeneous and spin-dependent flux distributions are generated and characterized using two-dimensional optical super-lattice potentials. Additionally their topological properties are studied via the observation of bulk topological currents.

The experimental techniques presented here offer a unique setting for studying topologically non-trivial systems with ultracold atoms.
AuthorMonika Aidelsburger
PublisherSpringer
Published2019-03-30
ISBN-139783319798486
BindingPaperback
Pages172
LanguageEnglish
SubjectsScience
TopicThermal Effects
SeriesSpringer Theses

Format: Paperback

Length: 172 pages

Language: English

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