Optimizing the performance of semiconductors in both classical and quantum applications,
not only requires a solid understanding of elementary excitations such as electrons, holes …

Electron transfer is a fundamental process in chemistry, biology, and physics. One of the
most intriguing questions concerns the realization of the transitions between nonadiabatic …

Nonradiative processes govern efficiencies of semiconductor nanocrystal (NC)-based
devices. A central process is hot exciton cooling, or the nonradiative relaxation of a highly …

Recent experiments have probed the chiral properties of semiconductor nanocrystal (NC)
quantum dots (QDs), but understanding the circular dichroism line shape, excitonic features …

The utilization of excited charge carriers in semiconductor nanocrystals (NCs) for
optoelectronic technologies has been a long-standing goal in the field of nanoscience …

Controlling the relaxation dynamics of excitons is key to improving the efficiencies of
semiconductor-based applications. Confined semiconductor nanocrystals (NCs) offer …

We explore the dynamics of energy transfer between two nanocrystal quantum dots placed
within an optical microcavity. By adjusting the coupling strength between the cavity photon …

Exciton–phonon coupling limits the homogeneous emission line width of nanocrystals.
Hence, a full understanding of this is crucial. In this work, we statistically investigate exciton …

Lead-halide perovskite nanocrystals have recently emerged as desirable optical materials
for applications such as coherent quantum light emitters and solid-state laser cooling due to …

Exciton-phonon coupling limits the homogeneous emission linewidth of nanocrystals.
Hence, a full understanding of it is crucial. In this work, we statistically investigate exciton …