In this review, we present important concepts to describe inorganic–organic interfaces in
hybrid solar cells. We discuss the formation of hybrid interfaces, provide an introduction to …

Planar organic heterojunctions are widely used in photovoltaic cells, light-emitting diodes,
and bilayer field-effect transistors. The energy level alignment in the devices plays an …

Detailed understanding and control of the intermolecular forces that govern molecular
assembly are necessary to engineer structure and function at the nanoscale. Liquid crystal …

Combining 2D materials with functional molecular films enables the fabrication of van der
Waals bound organic/inorganic hybrids that are of interest for future device architectures …

Technologies employing nanomaterials, such as electronics, optoelectronics,
nanobiotechnologies, quantum optics, and nanophotonics, are perceived as the key drivers …

Organic semiconductors combine flexible tailoring of their optoelectronic properties by
synthetic means with strong light–matter coupling, which is advantageous for organic …

Isomerism of molecular structures is often encountered in the field of organic
semiconductors, but little is known about how it can impact electronic and charge transport …

Charge-transfer excitons (CTXs) at organic donor/acceptor interfaces are considered
important intermediates for charge separation in photovoltaic devices. Crystalline model …

The metal–semiconductor interface determines the efficiency of charge carrier injection into
any organic electronics device. Control of this interface, its structure, and its morphology is …

The great majority of electronic and optoelectronic devices depend on interfaces between p-
type and n-type semiconductors. Finding matching donor–acceptor systems in molecular …