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Nature Physics

Quantum simulations with ultracold quantum gases

Immanuel Bloch, Jean Dalibard, Sylvain Nascimbène

Published Apr 1, 2012• 2,332 citations
Publisher
DOI
10.1038/nphys2259

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Quantum computers, although not yet available on the market, will revolutionise the future of information processing. Already now, quantum computers of special purpose, i.e., quantum simulators, are within reach. The physics of ultracold atoms, ions, and molecules offers unprecedented possibilities of control of quantum many systems, and novel possibilities of applications for quantum information and quantum metrology. Particularly fascinating is the possibility of using ultracold atoms in lattices to simulate condensed matter or even high energy physics. This book provides a comprehensive overview of ultracold lattice gases as quantum simulators, an interdisciplinary field involving atomic, molecular, and optical physics; quantum optics; quantum information; and condensed matter and high energy physics. It includes some introductory chapters on basic concepts and methods, and focuses on the physics of spinor, dipolar, disordered, and frustrated lattice gases, before reviewing in detail artificial lattice gauge fields with ultracold gases. The last part of the book moves onto a discussion of possible implementations universal quantum computers with ultracold atoms. After a crash course in quantum information theory, several models of quantum computation with ultracold gases are presented, as well as the current understanding of condensed matter from a quantum information perspective. The book ends with the general discussion of various detection methods that are unique for ultracold atoms.

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1. Strongly correlated bosons and fermions in optical lattices 2. Ultracold Atoms in Optical Lattices 3. Few-atom problem 4. Entanglement in many-body quantum systems 5. Quantum Hall States of Ultracold Atomic Gases 6. Theory of dipolar gases 7. Ultracold Polar Molecules 8. Ultra-cold Fermi gases as quantum simulators of condensed matter physics 9. Competing instabilities in quench experiments with ultracold Fermi gases near a Feshbach resonance 10. Anderson localization of ultra-cold atoms in a laser speckle

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Quantum computers, although not yet available on the market, will revolutionise the future of information processing. Already now, quantum computers of special purpose, i.e., quantum simulators, are within reach. The physics of ultracold atoms, ions, and molecules offers unprecedented possibilities of control of quantum many systems, and novel possibilities of applications for quantum information and quantum metrology. Particularly fascinating is the possibility of using ultracold atoms in lattices to simulate condensed matter or even high energy physics. This book provides a comprehensive overview of ultracold lattice gases as quantum simulators, an interdisciplinary field involving atomic, molecular, and optical physics; quantum optics; quantum information; and condensed matter and high energy physics. It includes some introductory chapters on basic concepts and methods, and focuses on the physics of spinor, dipolar, disordered, and frustrated lattice gases, before reviewing in detail artificial lattice gauge fields with ultracold gases. The last part of the book moves onto a discussion of possible implementations universal quantum computers with ultracold atoms. After a crash course in quantum information theory, several models of quantum computation with ultracold gases are presented, as well as the current understanding of condensed matter from a quantum information perspective. The book ends with the general discussion of various detection methods that are unique for ultracold atoms.
1. Strongly correlated bosons and fermions in optical lattices 2. Ultracold Atoms in Optical Lattices 3. Few-atom problem 4. Entanglement in many-body quantum systems 5. Quantum Hall States of Ultracold Atomic Gases 6. Theory of dipolar gases 7. Ultracold Polar Molecules 8. Ultra-cold Fermi gases as quantum simulators of condensed matter physics 9. Competing instabilities in quench experiments with ultracold Fermi gases near a Feshbach resonance 10. Anderson localization of ultra-cold atoms in a laser speckle