Entangled photon pairs are essential for a multitude of quantum photonic applications. To
date, the best performing solid-state quantum emitters of entangled photons are …

The creation, transfer, and stabilization of localized excitations are studied in a donor–
acceptor Frenkel exciton model in an atomistic treatment of reduced-size double quantum …

The rapidly developing quantum communication technology requires deterministic quantum
emitters that can generate single photons and entangled photon pairs in the third telecom …

We present a theoretical and experimental investigation of exciton recombination dynamics
and the related polarization of emission in highly in-plane asymmetric nanostructures …

Due to their band-structure and optical properties, InAs/InP quantum dots (QDs) constitute a
promising system for single-photon generation at the third telecom window of silica fibers …

We present a detailed experimental optical study supported by theoretical modeling of In As
quantum dots (QDs) embedded in an (In, Al, Ga) As barrier lattice matched to In P (001) …

Integrating light emitters based on III–V materials with silicon-based electronics is crucial for
further increase in data transfer rates in communication systems since the indirect bandgap …

We report Coulomb mediated hybridization of excitonic states in optically active InGaAs
quantum dot molecules. By probing the optical response of an individual quantum dot …

There has been tremendous progress in manipulating electron and hole-spin states in
quantum dots or quantum dot molecules (QDMs) with growth-direction (vertical) electric …

We calculate the spectrum of excited exciton states in application-relevant self-assembled
pyramidal quantum dots grown in InAs/InP and InAs/AlGaInAs material systems. These types …