The field of organic electronics has been prolific in the last couple of years, leading to the
design and synthesis of several molecular semiconductors presenting a mobility in excess of …

Organic electronics is a promising field spanning a wide range of applications, with
unrivaled advantages in low production cost, versatility in material synthesis, and …

An increase or modification of structural order in the vicinity of a solid substrate is known for
a wide range of materials. For molecular materials crystallizing on a solid surface it has been …

The spectral density of localized states in the band gap of pentacene (trap DOS) was
determined with a pentacene-based thin-film transistor from measurements of the …

Photoemission spectroscopy is commonly applied to study the band structure of solids by
measuring the kinetic energy versus angular distribution of the photoemitted electrons. Here …

Material properties frequently relate to structures at or near surfaces, particularly in thin films.
As a result, it is essential to understand these structures at the molecular and atomistic …

Molecular electrical doping of organic semiconductors has emerged as a valuable strategy
to improve the performance of organic (opto-) electronic devices and to extend the range of …

Progress in the field of organic electronics depends on the synthesis of new π-conjugated
molecules to further improve the performance of, for example, organic light-emitting diodes …

Ionization energy and electron affinity in organic solids are understood in terms of a single
molecule perturbed by solid-state effects such as polarization energy, band dispersion, and …

Charge carrier mobility is a central property that characterizes the performances of organic
semiconductors and is mostly measured in field‐effect transistors. High mobility values are …