We report on a scanning microscopy technique for atom-number-resolved imaging of excited-state atoms. A tightly focused laser beam leads to local autoionization and the resulting ions are counted electronically. Scanning the beam across the cloud builds up an image of the density distribution of excited atoms, with access to the full counting statistics at each spatial sampling point and an overall detection efficiency of 21% . We apply this technique to the measurement of a spatially inhomogeneous electric field with a spatial resolution of 50 μ m and a sensitivity to electric-field gradients of 0.04 V cm −2
Ultracold atoms are an exceptionally versatile platform to test novel physical concepts. They have g...
There has recently been an initiative toward establishing atomic measurement standards for field qua...
We have observed transitions to autoionizing states in Mg using two short optical pulses. Mg atoms a...
We report on a scanning microscopy technique for atom-number-resolved imaging of excited-state atoms...
Atomic coherence phenomena are usually investigated using single beam techniques without spatial res...
We report on the all-optical detection of Rydberg states in an effusive atomic beam of strontium ato...
We present experimental observations of atom-light interactions within tens of nanometers (down to 1...
This thesis describes the development of a new technique for measuring the spatial distribution of R...
We measure the resonance line shape of atomic-vapor layers with nanoscale thickness confined between...
We demonstrate number-resolved detection of individual strontium atoms in a long working distance lo...
We demonstrate a method for probing interaction effects in a thermal beam of strontium atoms using s...
Abstract. We report on the realization of high resolution electron microscopy of Rydberg-excited ult...
Terahertz (THz) near-field imaging is a flourishing discipline, with applications from fundamental s...
In this paper we report a direct observation of the oscillation between bound-state configurations i...
55 years after Richard Feynman’s famous Caltech lecture ‘There is plenty of room at the bottom’ [1],...
Ultracold atoms are an exceptionally versatile platform to test novel physical concepts. They have g...
There has recently been an initiative toward establishing atomic measurement standards for field qua...
We have observed transitions to autoionizing states in Mg using two short optical pulses. Mg atoms a...
We report on a scanning microscopy technique for atom-number-resolved imaging of excited-state atoms...
Atomic coherence phenomena are usually investigated using single beam techniques without spatial res...
We report on the all-optical detection of Rydberg states in an effusive atomic beam of strontium ato...
We present experimental observations of atom-light interactions within tens of nanometers (down to 1...
This thesis describes the development of a new technique for measuring the spatial distribution of R...
We measure the resonance line shape of atomic-vapor layers with nanoscale thickness confined between...
We demonstrate number-resolved detection of individual strontium atoms in a long working distance lo...
We demonstrate a method for probing interaction effects in a thermal beam of strontium atoms using s...
Abstract. We report on the realization of high resolution electron microscopy of Rydberg-excited ult...
Terahertz (THz) near-field imaging is a flourishing discipline, with applications from fundamental s...
In this paper we report a direct observation of the oscillation between bound-state configurations i...
55 years after Richard Feynman’s famous Caltech lecture ‘There is plenty of room at the bottom’ [1],...
Ultracold atoms are an exceptionally versatile platform to test novel physical concepts. They have g...
There has recently been an initiative toward establishing atomic measurement standards for field qua...
We have observed transitions to autoionizing states in Mg using two short optical pulses. Mg atoms a...