Using Monte Carlo simulations, we revisited charge transport in degenerate disordered organic semiconductors that are characterized by hopping transport. We found that, when a non-negligible fraction of the molecules is ionized (i.e., high charge density), charge transfer (transport) involves transfer of energy as well. Although Monte Carlo simulations confirm that, at low electric fields, the generalized Einstein relation describes the relation between drift and diffusion well, the use of the energy flux model provides a more intelligible and transparent description of the phenomenon at hand, enabling its generalization under the same premise as the thermoelectric effect and establishing a basis for the monitoring of charge-carrier energy ...
Charge transport in disordered organic semiconductors, which is governed by incoherent hopping betwe...
We present the results of Monte Carlo simulations of transport of charge carriers of a single type i...
Electronic devices made of organic molecules are starting to show their transfomative power in vario...
Improvement of the performance of organic disordered semiconductors (OSC) is driven by the understan...
The concept of transport energy is the most transparent theoretical approach to describe hopping tra...
We discuss drift–diffusion models for charge carrier transport in organic semiconductor devices. The...
Charge transport in polymeric or small-molecule organic semiconductors used in organic light-emittin...
We investigate charge transport in disordered organic host–guest systems with a bimodal Gaussian den...
We investigate the transport properties of charge carriers in disordered organic semiconductors usin...
The impact of the energetic disorder and the charge localization on the conductivity, mobility and c...
The carrier transport properties in nanocrystalline semiconductors and organic materials play a key...
Charge transport plays a key role in defining the performance of organic-based devices such as light...
Organic electronic devices often consist of a sandwich structure containing several layers of disord...
Charge transport in disordered organic semiconductors, which is governed by incoherent hopping betwe...
We present the results of Monte Carlo simulations of transport of charge carriers of a single type i...
Electronic devices made of organic molecules are starting to show their transfomative power in vario...
Improvement of the performance of organic disordered semiconductors (OSC) is driven by the understan...
The concept of transport energy is the most transparent theoretical approach to describe hopping tra...
We discuss drift–diffusion models for charge carrier transport in organic semiconductor devices. The...
Charge transport in polymeric or small-molecule organic semiconductors used in organic light-emittin...
We investigate charge transport in disordered organic host–guest systems with a bimodal Gaussian den...
We investigate the transport properties of charge carriers in disordered organic semiconductors usin...
The impact of the energetic disorder and the charge localization on the conductivity, mobility and c...
The carrier transport properties in nanocrystalline semiconductors and organic materials play a key...
Charge transport plays a key role in defining the performance of organic-based devices such as light...
Organic electronic devices often consist of a sandwich structure containing several layers of disord...
Charge transport in disordered organic semiconductors, which is governed by incoherent hopping betwe...
We present the results of Monte Carlo simulations of transport of charge carriers of a single type i...
Electronic devices made of organic molecules are starting to show their transfomative power in vario...