In highest quality organic single-crystal field-effect transistors, electron transport occurs in
the band-like regime, with the carrier mobility increasing upon lowering temperature. Neither …

Organic electronics requires materials with high charge mobility. Despite decades of
intensive research, charge transport in high-mobility organic semiconductors has not been …

Theoretical understanding of charge transport in organic semiconductors is exclusively
important for organic electronics, but still remains a subject of debate. The recently …

The charge-transport properties in C8BTBT–FnTCNQ and DMQtT–F4TCNQ mixed-stack
crystals have been investigated by means of density functional theory, molecular dynamics …

Single-crystal organic field-effect transistors (OFETs) based on p-channel molecular
semiconductors have led to breakthrough carrier mobilities and to the observation of band …

Traditionally, it is believed that three‐dimensional transport networks are preferable to those
of lower dimensions. We demonstrate that inter‐layer electronic couplings may result in a …

The crystalline structure of organic materials dictates their physical properties, but while
significant research effort is geared towards understanding structure–property relationships …

We have used density functional theory calculations and mixed quantum/classical dynamics
simulations to study the electronic structure and charge-transport properties of three …

Molecular doping has conventionally been an effective way to improve the electrical‐
transport performances in organic field‐effect transistors (OFETs), while corresponding …

Single crystals of two new charge-transfer compounds, anthracene-F4TCNQ and tetracene-
F4TCNQ, were grown by physical vapor transport. Both of these crystals have a 1: 1 donor …