Non-adiabatic preparation of spin crystals with ultracold polar molecules
arXiv:1203.0010 · doi:10.1103/PhysRevLett.109.035301
Abstract
We study the growth dynamics of ordered structures of strongly interacting polar molecules in optical lattices. Using dipole blockade of microwave excitations, we map the system onto an interacting spin-1/2 model possessing ground states with crystalline order, and describe a way to prepare these states by non-adiabatically driving the transitions between molecular rotational levels. The proposed technique bypasses the need to cross a phase transition and allows for the creation of ordered domains of considerably larger size compared to approaches relying on adiabatic preparation.
arXiv comment5 pages, 4 figures, to appear in Phys. Rev. Lett
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- Full counting statistics of laser excited Rydberg aggregates in a one-dimensional geometry
- Topological phases in ultracold polar-molecule quantum magnets
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- Kitaev honeycomb and other exotic spin models with polar molecules
- Dynamic formation of Rydberg aggregates at off-resonant excitation
- Simulating quantum magnets with symmetric top molecules
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- Two-state Bogoliubov theory of a molecular Bose gas
- Frustrated plane-polarized dipoles in one dimension
- Ultrafast light-induced long range antiferromagnetic correlations in paramagnets