We report on the buffer-gas cooling and trapping of CrH and MnH molecules in a magnetic quadrupole trap with densities on the order of 106 cm−3 at a temperature of 650 mK. Storage times of up to 180 ms have been observed, corresponding to a 20-fold lifetime enhancement with respect to the field-free diffusion through the 3He buffer-gas. Using Monte Carlo trajectory simulations, inelastic molecule-3He collision cross sections of 1.6×10−18 and 3.1×10−17 cm2 are extracted for CrH and MnH, respectively. Furthermore, elastic molecule- 3He collision cross sections of 1.4(±0.5)×10−14 cm2 are determined for both species. We conclude that the confinement time of these molecules in a magnetic trapping field is limited by inelastic collisions wit...
The preparation of cold molecules is of great importance in many contexts, such as fundamental physi...
We measure and theoretically determine the effect of molecular rotational splitting on Zeeman relaxa...
Author Institution: Harvard-MIT Center for Ultracold Atoms, Cambridge, MA 02138NH molecular radicals...
We report on the buffer- gas cooling and trapping of CrH and MnH molecules in a magnetic quadrupole ...
Over the past three years we have developed the technique of buffer-gas cooling and loading of atoms...
We report the successful buffer-gas cooling and magnetic trapping of chromium atoms with densities e...
Author Institution: Department of Chemistry and Biochemistry, Arizona State \\University, Tempe, AZ,...
NH radicals are magnetically trapped and their Zeeman relaxation and energy transport collision cros...
NH radicals are magnetically trapped and their Zeeman relaxation and energy transport collision cros...
Buffer gas cooling is used to trap NH molecules with 1/e lifetimes exceeding 20 s. Helium vapor gene...
We describe a method for loading paramagnetic atoms or molecules into a magnetic trap. A 3He buffer ...
We observe magnetic trapping of atomic nitrogen (N14) and cotrapping of ground-state imidogen (N14 H...
Achieving precise control over an array of ultracold molecules would provide a unique tool-set for c...
We observe magnetic trapping of atomic nitrogen (N14) and cotrapping of ground-state imidogen (N14H,...
Collisions between cold polyatomic molecules and atoms are essential in various processes, including...
The preparation of cold molecules is of great importance in many contexts, such as fundamental physi...
We measure and theoretically determine the effect of molecular rotational splitting on Zeeman relaxa...
Author Institution: Harvard-MIT Center for Ultracold Atoms, Cambridge, MA 02138NH molecular radicals...
We report on the buffer- gas cooling and trapping of CrH and MnH molecules in a magnetic quadrupole ...
Over the past three years we have developed the technique of buffer-gas cooling and loading of atoms...
We report the successful buffer-gas cooling and magnetic trapping of chromium atoms with densities e...
Author Institution: Department of Chemistry and Biochemistry, Arizona State \\University, Tempe, AZ,...
NH radicals are magnetically trapped and their Zeeman relaxation and energy transport collision cros...
NH radicals are magnetically trapped and their Zeeman relaxation and energy transport collision cros...
Buffer gas cooling is used to trap NH molecules with 1/e lifetimes exceeding 20 s. Helium vapor gene...
We describe a method for loading paramagnetic atoms or molecules into a magnetic trap. A 3He buffer ...
We observe magnetic trapping of atomic nitrogen (N14) and cotrapping of ground-state imidogen (N14 H...
Achieving precise control over an array of ultracold molecules would provide a unique tool-set for c...
We observe magnetic trapping of atomic nitrogen (N14) and cotrapping of ground-state imidogen (N14H,...
Collisions between cold polyatomic molecules and atoms are essential in various processes, including...
The preparation of cold molecules is of great importance in many contexts, such as fundamental physi...
We measure and theoretically determine the effect of molecular rotational splitting on Zeeman relaxa...
Author Institution: Harvard-MIT Center for Ultracold Atoms, Cambridge, MA 02138NH molecular radicals...