The subject of this review is the colloidal quantum dot (QD) and specifically the interaction of
the QD with proximate molecules. It covers various functions of these molecules, including (i) …

Quantum dot (QD) surface chemistry is an emerging field in semiconductor nanocrystal
related research. Along with size manipulation, the careful control of QD surface chemistry …

Band edge positions of semiconductors determine their functionality in many optoelectronic
applications such as photovoltaics, photoelectrochemical cells and light emitting diodes …

Colloidal quantum dots (CQDs) are fast-improving materials for next-generation solution-
processed optoelectronic devices such as solar cells, photocatalysis, light emitting diodes …

Solution-processed quantum dots are a promising material for large-scale, low-cost solar
cell applications. New device architectures and improved passivation have been …

New inorganic ligands including halide anions have significantly accelerated progress in
colloidal quantum dot (CQD) photovoltaics in recent years. All such device reports to date …

Nanometer-scale crystals of bulk group IV, III–V, II–VI, IV–VI, I–III–VI2, and metal–halide
perovskite semiconductors, dispersed in solvents, are known as colloidal nanocrystals and …

The ability of nanoscopic materials to self-organize into large-scale assembly structures that
exhibit unique collective properties has opened up new and exciting opportunities in the …

Colloidal quantum dots (QDs) stand among the most attractive light-harvesting materials to
be exploited for solution-processed optoelectronic applications. To this aim, quantitative …

Surface ligands enable control over the dispersibility of colloidal quantum dots (CQDs) via
steric and electrostatic stabilization. Today's device-grade CQD inks have consistently relied …