Creation of p-wave Feshbach molecules in the selected angular momentum states using an optical lattice
arXiv:1607.02270 · doi:10.1088/0953-4075/49/20/204001
Abstract
We selectively create p-wave Feshbach molecules in the orbital angular momentum projection state of Li. We use an optical lattice potential to restrict the relative momentum of the atoms such that only the molecular state couples to the atoms at the Feshbach resonance. We observe the hollow-centered dissociation profile, which is a clear indication of the selective creation of p-wave molecules in the states. We also measure the dissociation energy of the p-wave molecules created in the optical lattice and develop a theoretical formulation to explain the dissociation energy as a function of the magnetic field ramp rate for dissociation. The capability of selecting one of the two closely-residing p-wave Feshbach resonances is useful for the precise characterization of the p-wave Feshbach resonances.
6 pages, 5 figures, Accepted in J. Phys. B: At. Mol. Opt. Phys
References in corpus (9)
- Crossover from a molecular Bose-Einstein condensate to a degenerate Fermi gas
- Resonantly-paired fermionic superfluids
- p-wave Feshbach molecules
- Anisotropic Fermi Superfluid via p-wave Feshbach Resonance
- Collisional Properties of p-Wave Feshbach Molecules
- Binding Energies of 6Li p-wave Feshbach Molecules
- Dissociation of ultracold molecules with Feshbach resonances
- Critical Temperature and Condensate Fraction of a Fermion Pair Condensate
- Atom-molecule Rabi oscillations in a Mott insulator
Cited by in corpus (10)
- Two-body relaxation in a Fermi gas at a p-wave Feshbach resonance
- Quantitative analysis of -wave three-body losses via cascade process
- Unitary -wave Fermi gas in one dimension
- Emergent s-wave interactions between identical fermions in quasi-one-dimensional geometries
- Emergent -wave interactions in orbitally active quasi-two-dimensional Fermi gases
- Temperature dependence of -wave contacts in a harmonically trapped Fermi gas
- Precision Measurement of Spin-Dependent Dipolar Splitting in Li p-Wave Feshbach Resonances
- Shallow Trimers of Two Identical Fermions and One Particle in Resonant Regimes
- Efficient shortcuts-to-adiabaticity for loading an ultracold Fermi gas into higher orbital bands of one-dimensional optical lattice
- Elastic collision rates of spin-polarized fermions in two dimensions