International audienceWe demonstrate experimentally the possibility to manipulate the coupling strength in an asymmetric pair of electronically coupled InGaAs quantum dots by using externally induced strain fields. The coupling strength of holes confined in the dots increases linearly with increasing tensile strain. A model based on k.p theory explains the effect in terms of modified weight of the light hole component mediating the coupling in the barrier. Our results are relevant to the creation and control of entangled states in optically active quantum dots
We investigate carrier capture processes in strain-induced quantum dot structures. The quantum dots ...
We perform an experimental and computational study of the effects of external stress and intermixing...
International audienceStarting from the numerical solution of the k.p description of a mismatched el...
\u3cp\u3eDynamic control over the full g-tensor in individual InGaAs/GaAs self-assembled quantum dot...
Dynamic control over the full g-tensor in individual InGaAs/GaAs self-assembled quantum dots is achi...
We develop the mechanics theory of a phenomenon in which strain is induced in nanoscale structures i...
Using four-band k·p Hamiltonians, we study how biaxial strain and position-dependent effective masse...
AbstractWe develop the mechanics theory of a phenomenon in which strain is induced in nanoscale stru...
Semiconductor self-assembled quantum dots (SAQDs) normally have zero-dimensional properties, but bec...
Semiconductor quantum dots are of particular interest, both for fundamental research and possible ap...
Coupled double quantum dots and quantum dot superlattices are formed by utilizing the strain of an I...
The tunability of the exciton g factor in InGaAs quantum dots using compressive biaxial stress appli...
We investigate carrier capture processes in strain-induced quantum dot structures. The quantum dots ...
Recent progress in nanotechnology has allowed the fabrication of new hybrid systems in which a singl...
We investigate carrier capture processes in strain-induced quantum dot structures. The quantum dots ...
We perform an experimental and computational study of the effects of external stress and intermixing...
International audienceStarting from the numerical solution of the k.p description of a mismatched el...
\u3cp\u3eDynamic control over the full g-tensor in individual InGaAs/GaAs self-assembled quantum dot...
Dynamic control over the full g-tensor in individual InGaAs/GaAs self-assembled quantum dots is achi...
We develop the mechanics theory of a phenomenon in which strain is induced in nanoscale structures i...
Using four-band k·p Hamiltonians, we study how biaxial strain and position-dependent effective masse...
AbstractWe develop the mechanics theory of a phenomenon in which strain is induced in nanoscale stru...
Semiconductor self-assembled quantum dots (SAQDs) normally have zero-dimensional properties, but bec...
Semiconductor quantum dots are of particular interest, both for fundamental research and possible ap...
Coupled double quantum dots and quantum dot superlattices are formed by utilizing the strain of an I...
The tunability of the exciton g factor in InGaAs quantum dots using compressive biaxial stress appli...
We investigate carrier capture processes in strain-induced quantum dot structures. The quantum dots ...
Recent progress in nanotechnology has allowed the fabrication of new hybrid systems in which a singl...
We investigate carrier capture processes in strain-induced quantum dot structures. The quantum dots ...
We perform an experimental and computational study of the effects of external stress and intermixing...
International audienceStarting from the numerical solution of the k.p description of a mismatched el...