The chemical doping of molecular semiconductors is based on electron-transfer reactions
between the semiconductor and dopant molecules; here, the redox potential of the dopant is …

Conspectus Electrical doping using redox-active molecules can increase the conductivity of
organic semiconductors and lower charge-carrier injection and extraction barriers; it has …

N-doping of conjugated polymers either requires a high dopant fraction or yields a low
electrical conductivity because of their poor compatibility with molecular dopants. We …

Chiral organic optoelectronics using circularly polarized light (CPL) as the key element in
the photonic signal has recently emerged as a next-generation photonic technology …

The photovoltaic performance of organic solar cells can be enhanced by achieving a
fundamental understanding of the key processes that govern the device behaviour. In this …

Organic thermoelectrics are attractive for the fabrication of flexible and cost-effective
thermoelectric generators (TEGs) for waste heat recovery, in particular by exploiting large …

Abstract n‐Doping electron‐transport layers (ETLs) increases their conductivity and
improves electron injection into organic light‐emitting diodes (OLEDs). Because of the low …

n-Doping of P (BTP-DPP) with the organometallic dimer (RuCp* mes) 2, processed through
sequential casting, is reported. Maximum conductivities of 0.45 S cm–1 were achieved that …

The effects of sequential n-doping on a high-electron-mobility naphthalene-diimide-based
copolymer poly [(N, N′-bis (2-decyltetradecyl)-naphthalene-1, 8: 4, 5-bis (dicarboximide)-2 …

Doped conjugated organic semiconductors are suitable materials to be used as building
blocks of flexible and cost‐effective thermoelectric generators. While several efficient …