Hybrid interfaces formed by inorganic semiconductors and organic molecules are intriguing
materials for opto-electronics. Interfacial charge transfer is primarily responsible for their …

Molecular interactions are crucial in diverse fields of protein folding, material science,
nanotechnology, and life origins. Although mounting experimental research controls …

Strong molecular dopants for organic semiconductors that are stable against diffusion are in
demand, enhancing the performance of organic optoelectronic devices. The conventionally …

Modeling the electronic and optical properties of organic semiconductors remains a
challenge for theory, despite the remarkable progress achieved in the last three decades …

We investigate from the first-principles many-body theory the role of the donor conjugation
length in doped organic semiconductors forming charge-transfer complexes (CTCs) …

Organic charge transfer complexes (CTCs) with near-infrared absorption received growing
interest in the past years, but the details of their photophysics, especially in thin films, remain …

The various proteins and asymmetric lipid bilayers present in cell membranes form
curvatures, resulting in structural transformations to generate vesicles. Fission and fusion …

We demonstrate the key role of charge-transfer complexes in surface doping as a successful
methodology for improving channel field-effect mobility and reducing the threshold voltage …

A series of new charge-transfer cocrystals of F2TCNQ with anthracene, tetracene, and
chrysene was prepared and characterized. The donor and acceptor molecules are arranged …

Doping in organic semiconductors remains a debated issue from both an experimental and
ab initio perspective. Due to the complexity of these systems, which exhibit a low degree of …