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John L. Bohn

Researcher at University of Colorado Boulder

Publications -  199
Citations -  11134

John L. Bohn is an academic researcher from University of Colorado Boulder. The author has contributed to research in topics: Dipole & Bose–Einstein condensate. The author has an hindex of 53, co-authored 190 publications receiving 10072 citations. Previous affiliations of John L. Bohn include University of Oxford & National Institute of Standards and Technology.

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Quantum-State Controlled Chemical Reactions of Ultracold Potassium-Rubidium Molecules

TL;DR: Experimental evidence for exothermic atom-exchange chemical reactions is reported, starting with an optically trapped near–quantum-degenerate gas of polar 40K87Rb molecules prepared in their absolute ground state.
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Creation of ultracold molecules from a Fermi gas of atoms

TL;DR: The creation and quantitative characterization of ultracold 40K2 molecules is reported, which can be converted back to atoms by reversing the scan, and the small binding energy of the molecules is controlled by detuning the magnetic field away from the Feshbach resonance, and can be varied over a wide range.
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Dipolar collisions of polar molecules in the quantum regime

TL;DR: It is shown how the long-range dipolar interaction can be used for electric-field control of chemical reaction rates in an ultracold gas of polar molecules, and how this dependence can be understood in a relatively simple model based on quantum threshold laws for the scattering of fermionic polar molecules.
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Hartree-Fock Theory for Double Condensates

TL;DR: Myatt et al. as mentioned in this paper presented a theoretical treatment that accounts in detail for a recent observation of overlapping Bose-Einstein condensates of two different hyperfine states, which explains the manner in which one condensate partially wraps around the other.
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Controlling the quantum stereodynamics of ultracold bimolecular reactions

TL;DR: In this paper, an optical lattice trap is used to confine the fermionic polar molecules in a quasi-two-dimensional, pancake-like geometry, with the dipoles oriented along the tight confinement direction.