The weak intermolecular interactions inherent in organic semiconductors make them
susceptible to defect formation, resulting in localized states in the band-gap that can trap …

Organic (opto) electronic materials have received considerable attention due to their
applications in thin-film-transistors, light-emitting diodes, solar cells, sensors, photorefractive …

The high trap density (generally 1016 to 1018 cm− 3) in thin films of organic semiconductors
is the primary reason for the inferior charge‐carrier mobility and large nonradiative …

The possibility to produce and process graphene, related 2D crystals, and heterostructures
in the liquid phase makes them promising materials for an ever‐growing class of …

Organic molecular semiconductors have been paid great attention due to their advantages
of low-temperature processability, low fabrication cost, good flexibility, and excellent …

While the chemical structure of organic semiconductors has an obvious effect on their
proclivity for charge transport, the ways with which they are processed have a dramatic effect …

Chemical versatility and compatibility with a vast array of processing techniques has led to
the incorporation of organic semiconductors in various electronic and opto-electronic …

Reducing the trap density within organic solar cells is of vital importance to realize high
power conversion efficiency (PCE); however, research focusing on this aspect is limited in …

Noncovalent intermolecular interactions, which can be tuned through the toolbox of synthetic
chemistry, determine not only the molecular packing but also the resulting electronic, optical …

The short charge‐carrier diffusion length (LD)(100–300 nm) in organic bulk heterojunction
(BHJ) impedes the further improvement in power conversion efficiency (PCE) of organic …