We propose a versatile experimental probe for cold atomic gases analogous to the scanning tunneling microscope (STM) in condensed matter. This probe uses the coherent coupling of a single particle to the system. Depending on the measurement sequence, our probe allows us to obtain either the local density and spatial density correlations, with a resolution on the nanometer scale, or the single particle correlation function in real time. We discuss applications of this scheme to the various possible phases for a two dimensional Hubbard system of fermions in an optical lattice
This thesis describes experiments which investigate ultracold atom ensembles in an optical lattice....
We study a two-level impurity coupled locally to a quantum gas on an optical lattice. For state-depe...
The Hubbard model contains only the essential ingredients to describe the behavior of strongly inter...
We propose a method to probe the local density of states (LDOS) of atomic systems that provides both...
We propose a scheme to measure the frequency-resolved local particle and hole spectra of any optical...
I present experiments with ultracold atoms which demonstrate a novel avenue to study strongly correl...
This thesis describes the methods used to achieve single-atom and single-site resolved fluorescence ...
We present a non-destructive method to probe a complex quantum system using multiple impurity atoms ...
Scanning tunneling microscopy (STM) is one of the few imaging techniques capable of imaging and posi...
Correlation functions play an important role for the theoretical and experimental characterization o...
Light absorption and emission have their origins in fast atomic-scale phenomena. To characterize the...
Strongly-correlated electron systems generate some of the richest phenomena and most challenging the...
We propose to utilize density-density correlations in the image of an expanding gas cloud to probe c...
In the present paper, we investigate a system of strongly interacting bosons confined in two-dimensi...
Single-atom-resolved detection in optical lattices using quantum-gas microscopes has enabled a new g...
This thesis describes experiments which investigate ultracold atom ensembles in an optical lattice....
We study a two-level impurity coupled locally to a quantum gas on an optical lattice. For state-depe...
The Hubbard model contains only the essential ingredients to describe the behavior of strongly inter...
We propose a method to probe the local density of states (LDOS) of atomic systems that provides both...
We propose a scheme to measure the frequency-resolved local particle and hole spectra of any optical...
I present experiments with ultracold atoms which demonstrate a novel avenue to study strongly correl...
This thesis describes the methods used to achieve single-atom and single-site resolved fluorescence ...
We present a non-destructive method to probe a complex quantum system using multiple impurity atoms ...
Scanning tunneling microscopy (STM) is one of the few imaging techniques capable of imaging and posi...
Correlation functions play an important role for the theoretical and experimental characterization o...
Light absorption and emission have their origins in fast atomic-scale phenomena. To characterize the...
Strongly-correlated electron systems generate some of the richest phenomena and most challenging the...
We propose to utilize density-density correlations in the image of an expanding gas cloud to probe c...
In the present paper, we investigate a system of strongly interacting bosons confined in two-dimensi...
Single-atom-resolved detection in optical lattices using quantum-gas microscopes has enabled a new g...
This thesis describes experiments which investigate ultracold atom ensembles in an optical lattice....
We study a two-level impurity coupled locally to a quantum gas on an optical lattice. For state-depe...
The Hubbard model contains only the essential ingredients to describe the behavior of strongly inter...