We explore a technique for decelerating molecules using a static magnetic eld and optical pumping. Molecules travel through a spatially varying magnetic fi eld and are repeatedly pumped into a weak-field seeking state as they move towards each strong field region, and into a strong-fi eld seeking state as they move towards weak fi eld. The method is time-independent and so is suitable for decelerating both pulsed and continuous molecular beams. By using guiding magnets at each weak field region, the beam can be simultaneously guided and decelerated. By tapering the magnetic field strength in the strong field regions, and exploiting the Doppler shift, the velocity distribution can be compressed during deceleration. We develop the principles ...
The motion of polar molecules can be controlled by time-varying inhomogeneous electric fields. In a ...
A decelerator is presented where polar neutral molecules are guided and decelerated using the princi...
The motion of polar molecules can be controlled by time-varying inhomogeneous electric fields. In a ...
We developed a new-concept Zeeman decelerator which produces a traveling magnetic trap. Atoms and mo...
N. Vanhaecke, U. Meier, M. Andrist, B.H. Meier, and F. Merkt V. Veksler H. L. Bethlem, G. Berden, an...
Zeeman deceleration is an experimental technique in which inhomogeneous, time-dependent magnetic fie...
State-selective manipulation of beams of atoms and molecules with electric and magnetic fields has b...
A novel traveling-wave Zeeman decelerator based on a double-helix coil geometry capable of decelerat...
The motion of neutral molecules in a beam can be manipulated with inhomogeneous electric and magneti...
We have decelerated a supersonic beam of 174YbF molecules using a switched sequence of electrostatic...
We have decelerated a supersonic beam of 174YbF molecules using a switched sequence of electrostatic...
The motion of polar molecules can be controlled by time-varying inhomogeneous electric fields. In a ...
Physicists have observed all the elementary particles predicted by the Standard Model. These particl...
Zeeman deceleration is an experimental technique in which inhomogeneous, time-dependent magnetic fie...
Zeeman deceleration is an experimental technique in which inhomogeneous, time-dependent magnetic fie...
The motion of polar molecules can be controlled by time-varying inhomogeneous electric fields. In a ...
A decelerator is presented where polar neutral molecules are guided and decelerated using the princi...
The motion of polar molecules can be controlled by time-varying inhomogeneous electric fields. In a ...
We developed a new-concept Zeeman decelerator which produces a traveling magnetic trap. Atoms and mo...
N. Vanhaecke, U. Meier, M. Andrist, B.H. Meier, and F. Merkt V. Veksler H. L. Bethlem, G. Berden, an...
Zeeman deceleration is an experimental technique in which inhomogeneous, time-dependent magnetic fie...
State-selective manipulation of beams of atoms and molecules with electric and magnetic fields has b...
A novel traveling-wave Zeeman decelerator based on a double-helix coil geometry capable of decelerat...
The motion of neutral molecules in a beam can be manipulated with inhomogeneous electric and magneti...
We have decelerated a supersonic beam of 174YbF molecules using a switched sequence of electrostatic...
We have decelerated a supersonic beam of 174YbF molecules using a switched sequence of electrostatic...
The motion of polar molecules can be controlled by time-varying inhomogeneous electric fields. In a ...
Physicists have observed all the elementary particles predicted by the Standard Model. These particl...
Zeeman deceleration is an experimental technique in which inhomogeneous, time-dependent magnetic fie...
Zeeman deceleration is an experimental technique in which inhomogeneous, time-dependent magnetic fie...
The motion of polar molecules can be controlled by time-varying inhomogeneous electric fields. In a ...
A decelerator is presented where polar neutral molecules are guided and decelerated using the princi...
The motion of polar molecules can be controlled by time-varying inhomogeneous electric fields. In a ...