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Springer proceedings in physics

Precision Calculations for Three-Body Molecular Bound States

Jean‐Philippe Karr, Mohammad Haidar, Laurent Hilico, V. I. Korobov

Published Jan 1, 2020• 1 citation
Publisher
DOI
10.1007/978-3-030-32357-8_14

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We analyze a narrow Feshbach resonance with ultracold chromium atoms colliding in ddd wave. The resonance is made possible by dipole-dipole interactions, which couple an incoming l=2l=2l=2 collision channel with a bound molecular state with l=0l=0l=0. We find that three-body losses associated with this resonance increase with temperature, and that the loss feature width as a function of magnetic field also increases linearly with temperature. The analysis of our experimental data shows that the Feshbach coupling is small compared both to the temperature and to the density limited lifetime of the resonant bound molecular state. One consequence is that the three-body loss rate is proportional to the square of the number of atoms, and that we can directly relate the amplitude of the losses to the Feshbach coupling parameter. We compare our measurement to a calculation of the coupling between the collisional channel and the molecular bound state by dipole-dipole interactions, and find a good agreement, with no adjustable parameter. An analysis of the loss line shape is also performed, which enables to precisely measure the position of the resonance.