In the rapidly developing electronics industry, it has become increasingly necessary to
explore materials that are cheap, flexible and versatile which have led to significant research …

The need to improve the performance of electronic devices based on organic materials has
been at the center of structure–property relation research, where the main objective is to …

The establishment of electronic and opto-electronic products relying on organic
semiconductors (OSCs) has been intensely explored over the past few decades due to their …

Organic semiconducting small molecules and polymers provide a rich phase space for
investigating the fundamentals of molecular and hierarchical assembly. Stemming from …

Organic nanoscale science and technology relies on the control of phenomena occurring at
the molecular level. This is of particular importance for the self-assembly of molecular …

Self-assembled monolayers (SAMs) are rapidly becoming an essential part of organic
electronics such as light emitting diodes (LEDs), organic field-effect transistors (OFETs), and …

The newly emerging field in organic electronics is to control the molecule–substrate
interface properties at a two-dimensional (2D) limit via interfacial interactions, which paves …

Organic semiconductor applications will significantly benefit from atomically precise, cofacial
stacking of extended π-conjugated molecular systems for efficient charge transport. Surface …

Analogous to conventional inorganic semiconductors, the performance of organic
semiconductors is directly related to their molecular packing, crystallinity, growth mode, and …

Organic/metal interfaces play crucial roles in the formation of intermolecular networks on
metal surfaces and the performance of organic devices. Although their purity and uniformity …