Atom-molecule Rabi oscillations in a Mott insulator
arXiv:0704.2155 · doi:10.1103/PhysRevLett.99.033201
Abstract
We observe large-amplitude Rabi oscillations between an atomic and a molecular state near a Feshbach resonance. The experiment uses 87Rb in an optical lattice and a Feshbach resonance near 414 G. The frequency and amplitude of the oscillations depend on magnetic field in a way that is well described by a two-level model. The observed density dependence of the oscillation frequency agrees with the theoretical expectation. We confirmed that the state produced after a half-cycle contains exactly one molecule at each lattice site. In addition, we show that for energies in a gap of the lattice band structure, the molecules cannot dissociate.
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- Many-body theory for systems with particle conversion: Extending the multiconfigurational time-dependent Hartree method
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- Quantum Register of Fermion Pairs
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- Multiple Transitions of Coupled Atom-Molecule Bosonic Mixtures in Two Dimensions
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- Feshbach resonances of harmonically trapped atoms
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- Interaction-induced instability and chaos in the photoassociative stimulated Raman adiabatic passage from atomic to molecular Bose-Einstein condensates
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- Particle-Localized Ground State of Atom-Molecule Bose-Einstein Condensates in a Double-Well Potential
- Adiabatic cooling of a tunable Bose-Fermi mixture in an optical lattice
- Statistical mechanics of a Feshbach coupled Bose-Fermi gas in an optical lattice
- Hybrid atom-molecule quantum walks in one-dimensional optical lattice