Physical Review E · 2005 · 49 citations · 54 references
Natural SciencesPhysicsCondensed Matter PhysicsDynamical SystemsQuantum MechanicsChaos TheoryLaser PhysicsNonlinear DynamicsNonlinear OpticsQuantum ControlQuantum DynamicsBose-einstein CondensationChaos ControlChaotic DynamicsControl Signal GenerationSpatial StructureTight-binding ApproximationTight-binding ModelsTight-binding Theory
The spatial structure of a Bose-Einstein condensate loaded into an optical lattice potential is investigated and the spatially chaotic distributions of the condensates are revealed under the tight-binding approximation. Adding a laser pulse on a proper site of the lattice and treating it as a control signal, control of the chaos in the system is carried out by using the Ott-Grebogi-Yorker scheme. For an appropriate laser pulse, we can suppress the chaos and push the system onto a stable manifold of a target orbit. After the control, a regular distribution, which may be expected in experiments or practical applications, of the condensates in the coordinate space is obtained.
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