Confinement control by optical lattices

Marcos Rigol; Alejandro Muramatsu

doi:10.1103/PhysRevA.70.043627

Confinement control by optical lattices

Marcos Rigol
, Alejandro Muramatsu

Research output: Contribution to journal › Article › peer-review

54 Scopus citations

Abstract

The ground state properties of the single-species noninteracting fermions confined on 1D optical lattices, were investigated. A system in which the center of the trap is initially displaced a small distance was studied, as well as the nonequilibrium dynamics of the fermionic cloud on a lattice. A detailed analysis of noninteracting systems focusing on the consequences of the combination of a combining and a periodic potential was performed. The results lead to a confinement of particles in a fraction of the available system size, which is directly related to the formation of insulating regions in the case of fermionic systems.

Original language	English (US)
Article number	043627
Pages (from-to)	043627-1-043627-12
Journal	Physical Review A - Atomic, Molecular, and Optical Physics
Volume	70
Issue number	4
DOIs	https://doi.org/10.1103/PhysRevA.70.043627
State	Published - Oct 2004

All Science Journal Classification (ASJC) codes

Atomic and Molecular Physics, and Optics

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10.1103/PhysRevA.70.043627

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title = "Confinement control by optical lattices",

abstract = "The ground state properties of the single-species noninteracting fermions confined on 1D optical lattices, were investigated. A system in which the center of the trap is initially displaced a small distance was studied, as well as the nonequilibrium dynamics of the fermionic cloud on a lattice. A detailed analysis of noninteracting systems focusing on the consequences of the combination of a combining and a periodic potential was performed. The results lead to a confinement of particles in a fraction of the available system size, which is directly related to the formation of insulating regions in the case of fermionic systems.",

author = "Marcos Rigol and Alejandro Muramatsu",

note = "Funding Information: ( Plenum , New York, 1986 ). . We thank HLR-Stuttgart (Project DynMet) for allocation of computer time. We gratefully acknowledge financial support from the LFSP Nanomaterialien and SFB 382. We are grateful to T. Pfau for insightful discussions, and to G. Modugno for interesting discussions on the experiments of Refs. ",

year = "2004",

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doi = "10.1103/PhysRevA.70.043627",

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AU - Rigol, Marcos

AU - Muramatsu, Alejandro

N1 - Funding Information: ( Plenum , New York, 1986 ). . We thank HLR-Stuttgart (Project DynMet) for allocation of computer time. We gratefully acknowledge financial support from the LFSP Nanomaterialien and SFB 382. We are grateful to T. Pfau for insightful discussions, and to G. Modugno for interesting discussions on the experiments of Refs.

PY - 2004/10

Y1 - 2004/10

N2 - The ground state properties of the single-species noninteracting fermions confined on 1D optical lattices, were investigated. A system in which the center of the trap is initially displaced a small distance was studied, as well as the nonequilibrium dynamics of the fermionic cloud on a lattice. A detailed analysis of noninteracting systems focusing on the consequences of the combination of a combining and a periodic potential was performed. The results lead to a confinement of particles in a fraction of the available system size, which is directly related to the formation of insulating regions in the case of fermionic systems.

AB - The ground state properties of the single-species noninteracting fermions confined on 1D optical lattices, were investigated. A system in which the center of the trap is initially displaced a small distance was studied, as well as the nonequilibrium dynamics of the fermionic cloud on a lattice. A detailed analysis of noninteracting systems focusing on the consequences of the combination of a combining and a periodic potential was performed. The results lead to a confinement of particles in a fraction of the available system size, which is directly related to the formation of insulating regions in the case of fermionic systems.

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Confinement control by optical lattices

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