We introduce a scheme for deep laser cooling of molecules based on robust dark states at zero velocity. By simulating this scheme, we show it to be a widely applicable method that can reach the recoil limit or below. We demonstrate and characterise the method experimentally, reaching a temperature of 5.4(7) μK. We solve a general problem of measuring low temperatures for large clouds by rotating the phase-space distribution and then directly imaging the complete velocity distribution. Using the same phase-space rotation method, we rapidly compress the cloud. Applying the cooling method a second time, we compress both the position and velocity distributions
Ultracold molecules are a promising platform for diverse scientific goals, ranging from quantum info...
Ultracold molecular gases are promising as an avenue to rich many-body physics, quantum chemistry, q...
We present a cooling method that should be generally applicable to atoms with narrow optical transit...
From studies of fundamental physics to quantum technologies the production of ultracold molecules wi...
The ability to cool atoms below the Doppler limit -- the minimum temperature reachable by Doppler co...
Ultracold molecules can be used for a diverse set of exciting applications including controlled quan...
Recently, laser cooling methods have been extended from atoms to molecules. The complex rotational a...
Ultracold molecules are ideal platforms for many important applications, ranging from quantum simula...
A laser-cooling scheme for molecules is presented based on repeated cycle of zero-velocity selection...
We demonstrate coherent microwave control of the rotational, hyperfine and Zeeman states of ultracol...
A Sisyphean task: Laser cooling of molecules is difficult, mainly due to their rich vibrational stru...
Many areas of physics—precision measurements, quantum information, and physical chemistry, to name a...
Laser cooling and trapping in a magneto-optical trap (MOT) have been essential to the success of col...
We present an optical cooling scheme that relies on hyperfine dark states to enhance loading and coo...
We study theoretically the behavior of laser-cooled calcium monofluoride (CaF) molecules in an optic...
Ultracold molecules are a promising platform for diverse scientific goals, ranging from quantum info...
Ultracold molecular gases are promising as an avenue to rich many-body physics, quantum chemistry, q...
We present a cooling method that should be generally applicable to atoms with narrow optical transit...
From studies of fundamental physics to quantum technologies the production of ultracold molecules wi...
The ability to cool atoms below the Doppler limit -- the minimum temperature reachable by Doppler co...
Ultracold molecules can be used for a diverse set of exciting applications including controlled quan...
Recently, laser cooling methods have been extended from atoms to molecules. The complex rotational a...
Ultracold molecules are ideal platforms for many important applications, ranging from quantum simula...
A laser-cooling scheme for molecules is presented based on repeated cycle of zero-velocity selection...
We demonstrate coherent microwave control of the rotational, hyperfine and Zeeman states of ultracol...
A Sisyphean task: Laser cooling of molecules is difficult, mainly due to their rich vibrational stru...
Many areas of physics—precision measurements, quantum information, and physical chemistry, to name a...
Laser cooling and trapping in a magneto-optical trap (MOT) have been essential to the success of col...
We present an optical cooling scheme that relies on hyperfine dark states to enhance loading and coo...
We study theoretically the behavior of laser-cooled calcium monofluoride (CaF) molecules in an optic...
Ultracold molecules are a promising platform for diverse scientific goals, ranging from quantum info...
Ultracold molecular gases are promising as an avenue to rich many-body physics, quantum chemistry, q...
We present a cooling method that should be generally applicable to atoms with narrow optical transit...