Chemical doping is a key process for investigating charge transport in organic
semiconductors and improving certain (opto) electronic devices,,,,,,,–. N (electron)-doping is …

The strength of electrostatic interactions within semiconductors strongly affects their
performance in optoelectronic devices. An important target is the tuning of a material's …

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

The inherent low thermal conductivity of polymeric materials along with their capability for
nonconventional processability, light weight, and flexibility makes them potential candidates …

Dimethyl-2-(4-(dimethylamino) phenyl)-2, 4-dihydro-1H-benzoimidazole, N-DMBI-H, is
widely used as an air-stable n-dopant for organic semiconductors. Here, its reactivity is …

Antimony trisulfide (Sb2S3) is a prospective electrode material for lithium-ion batteries (LIBs)
because of its thermal stability, low price, and high specific capacity. However, the …

Molecular doping, a fascinating technique to modulate the electrical property of organic
solids by importing additional charges, has been one of the focal points of active research …

Molecular doping is a promising strategy to fine-tune the electronic properties of halide
perovskites and accelerate their implementation in next-generation optoelectronics …

Molecular doping plays an important role in the modification of carrier density of organic
semiconductors thus enhancing their optoelectronic performance. However, efficient n …

In organic device applications, a high contact resistance between metal electrodes and
organic semiconductors prevents an efficient charge injection and extraction, which …