Organic semiconductors have opened up many new electronic applications, enabled by
properties like flexibility, low-cost manufacturing, and biocompatibility, as well as improved …

With the advent of a new era of smart-technology, the demand for more economic
optoelectronic materials that do not compromise with efficiency is gradually on the rise …

Metal halide perovskite films have gained significant attention because of their remarkable
optoelectronic performances. However, their poor stability upon the severe environment …

Crystalline organic semiconductors are known to have improved charge carrier mobility and
exciton diffusion length in comparison to their amorphous counterparts. Certain organic …

Understanding the charge transport physics is crucial for improving organic field-effect
transistors (OFETs) performance. Diverse mobility behaviour has been discovered and …

Organic semiconductors still lag behind their inorganic counterparts in terms of mobility due
to their lower structural order, in particular in thin films. Here, the highly ordered phase of …

In this article, the Gaussian density of states (DOSs) in organic semiconductors is taken into
account in order to derive a charge-based compact model for high-speed organic …

The energy‐level alignment (ELA) at interfaces ubiquitous in organic optoelectronic
applications is decisive for the device performance. Due to the notoriously low density of free …

Crystallization of rubrene, progressing from an amorphous phase to a triclinic meta-stable
and ultimately to the orthorhombic stable phase, offers broad applications not only in organic …

Excited-state properties of crystalline organic semiconductors are key to organic electronic
device applications. Machine learning (ML) models capable of predicting these properties …