Scanning-gate imaging of semiconductor quantum dots (QDs) promises access to probability distributions of quantum states. It could therefore be a novel tool for designing and optimizing tailored quantum states in such systems. A detailed study of a lithographically defined semiconductor QD in the Coulomb-blockade regime is presented, making use of the scanning-gate technique at a base temperature of 300 mK. The method allows a one-by-one manipulation of electrons in the structure. The obtained images interpreted with a suitable QD model guide the way to a local investigation of the electronic interior of the QD. Future perspectives of scanning-gate experiments on QDs are discussed
Scanning-tunneling microscope induced luminescence at low temperature has been used to study the car...
We use a model of a one-dimensional nanowire quantum dot to demonstrate the feasibility of a scannin...
Scanning tunneling microscopy was used to image sub-monolay- er CdSe (d = 10 nm) quantum dots (QDs) ...
Scanning-gate imaging of semiconductor quantum dots (QDs) promises access to probability distributio...
Scanning-gate imaging of semiconductor quantum dots (QDs) promises access to probability distributio...
Tailored electrostatic potentials are at the heart of semiconductor nanostructures. We present measu...
The manuscript describes my research activities on quantum transport in electronic devices using an ...
We use a scanning gate microscope (SGM) to characterize one-dimensional ultra-thin (diameter ≈ 30 nm...
Silicon has the potential to be a leading platform for hosting a large-scale quantum processor. Rece...
In this paper we review a recently introduced microscopy technique, scanning quantum dot microscopy ...
The scanning metallic tip of a scanning force microscope was coupled capacitively to electrons confi...
We introduce a scanning probe technique that enables three-dimensional imaging of local electrostati...
Conventional quantum transport methods can provide quantitative information on spin, orbital, and va...
International audienceWe show that scanning gate microscopy can be used for probing electron-electro...
We present conductance measurements of a ballistic circular cavity influenced by a scanning gate. In...
Scanning-tunneling microscope induced luminescence at low temperature has been used to study the car...
We use a model of a one-dimensional nanowire quantum dot to demonstrate the feasibility of a scannin...
Scanning tunneling microscopy was used to image sub-monolay- er CdSe (d = 10 nm) quantum dots (QDs) ...
Scanning-gate imaging of semiconductor quantum dots (QDs) promises access to probability distributio...
Scanning-gate imaging of semiconductor quantum dots (QDs) promises access to probability distributio...
Tailored electrostatic potentials are at the heart of semiconductor nanostructures. We present measu...
The manuscript describes my research activities on quantum transport in electronic devices using an ...
We use a scanning gate microscope (SGM) to characterize one-dimensional ultra-thin (diameter ≈ 30 nm...
Silicon has the potential to be a leading platform for hosting a large-scale quantum processor. Rece...
In this paper we review a recently introduced microscopy technique, scanning quantum dot microscopy ...
The scanning metallic tip of a scanning force microscope was coupled capacitively to electrons confi...
We introduce a scanning probe technique that enables three-dimensional imaging of local electrostati...
Conventional quantum transport methods can provide quantitative information on spin, orbital, and va...
International audienceWe show that scanning gate microscopy can be used for probing electron-electro...
We present conductance measurements of a ballistic circular cavity influenced by a scanning gate. In...
Scanning-tunneling microscope induced luminescence at low temperature has been used to study the car...
We use a model of a one-dimensional nanowire quantum dot to demonstrate the feasibility of a scannin...
Scanning tunneling microscopy was used to image sub-monolay- er CdSe (d = 10 nm) quantum dots (QDs) ...