Optical pumping by blackbody radiation is a feature shared by all polar molecules and fundamentally limits the time that these molecules can be kept in a single quantum state in a trap. To demonstrate and quantify this, we have monitored the optical pumping of electrostatically trapped OH and OD radicals by room-temperature blackbody radiation. Transfer of these molecules to rotationally excited states by blackbody radiation at 295 K limits the 1/e trapping time for OH and OD in the X-2 Pi(3/2), v('')=0, J('')=3/2(f) state to 2.8 and 7.1 s, respectively
We investigate the rovibrational population redistribution of polar molecules in the elect...
The laser-induced blackbody-assisted rotational cooling of a linear polyatomic ion, C2H2(+), in its ...
International audienceThe ability to cool and trap a large number of molecules is currently a crucia...
Optical pumping by blackbody radiation is a feature shared by all polar molecules and fundamentally ...
Optical pumping by blackbody radiation is a feature shared by all polar molecules and fundamentally ...
Author Institution: Fritz-Haber-Institut der Max-Planck-Gesellschaft, Berlin, GermanyWith a Stark de...
Samples of cold and ultracold polar molecules have the potential to revolutionize physical chemistry...
A pulsed beam of ground state OH radicals is slowed down using a Stark decelerator and is subsequent...
The motion of polar molecules can be controlled by time-varying inhomogeneous electric fields. In a ...
We report on the Stark deceleration and electrostatic trapping of ¹⁴NH (a¹Δ) radicals. In the trap, ...
Neutral molecules, isolated in the gas phase, can be prepared in a long-lived excited state and stor...
Neutral molecules, isolated in the gas-phase, can be prepared in a long-lived excited state and stor...
The ability to cool and slow atoms with light for subsequent trappingallows investigations of the pr...
We here report on the optical pumping of both 14NH and 15NH radicals from the metastable a 1 state i...
We report bunching, slowing, and acceleration of a supersonically cooled beam of diatomic hydroxyl r...
We investigate the rovibrational population redistribution of polar molecules in the elect...
The laser-induced blackbody-assisted rotational cooling of a linear polyatomic ion, C2H2(+), in its ...
International audienceThe ability to cool and trap a large number of molecules is currently a crucia...
Optical pumping by blackbody radiation is a feature shared by all polar molecules and fundamentally ...
Optical pumping by blackbody radiation is a feature shared by all polar molecules and fundamentally ...
Author Institution: Fritz-Haber-Institut der Max-Planck-Gesellschaft, Berlin, GermanyWith a Stark de...
Samples of cold and ultracold polar molecules have the potential to revolutionize physical chemistry...
A pulsed beam of ground state OH radicals is slowed down using a Stark decelerator and is subsequent...
The motion of polar molecules can be controlled by time-varying inhomogeneous electric fields. In a ...
We report on the Stark deceleration and electrostatic trapping of ¹⁴NH (a¹Δ) radicals. In the trap, ...
Neutral molecules, isolated in the gas phase, can be prepared in a long-lived excited state and stor...
Neutral molecules, isolated in the gas-phase, can be prepared in a long-lived excited state and stor...
The ability to cool and slow atoms with light for subsequent trappingallows investigations of the pr...
We here report on the optical pumping of both 14NH and 15NH radicals from the metastable a 1 state i...
We report bunching, slowing, and acceleration of a supersonically cooled beam of diatomic hydroxyl r...
We investigate the rovibrational population redistribution of polar molecules in the elect...
The laser-induced blackbody-assisted rotational cooling of a linear polyatomic ion, C2H2(+), in its ...
International audienceThe ability to cool and trap a large number of molecules is currently a crucia...