The organic electrochemical transistor (OECT) has emerged as the core component of
specialized bioelectronic technologies, such as neural interfaces and sensors of disease …

Conjugated polymers exhibit a unique portfolio of electrical and electrochemical behavior,
which–paired with the mechanical properties that are typical for macromolecules–make …

Due to their effective ionic-to-electronic signal conversion and mechanical flexibility, organic
neural implants hold considerable promise for biocompatible neural interfaces. Current …

The possibility to control the charge carrier density through doping is one of the defining
properties of semiconductors. For organic semiconductors, the doping process is known to …

Conjugated polymers with oligoether side chains are promising mixed ionic-electronic
conductors, but they tend to feature a low glass transition temperature and hence a low …

The interactions between counterions and electronic carriers in electrically doped
semiconducting polymers are important for delocalization of charge carriers, electronic …

Electrochemical doping of organic mixed ionic–electronic conductors is key for modulating
their conductivity, charge storage and volume enabling high performing bioelectronic …

Conjugated polymers with oligoether side chains make up a promising class of
thermoelectric materials. In this work, the impact of the side-chain length on the …

Functionally graded materials (FGMs) are widely explored in the context of inorganic
thermoelectrics, but not yet in organic thermoelectrics. Here, the impact of doping gradients …

Molecular p-type dopants, widely used to electrically dope semiconducting polymers, are
challenging to design because of the requirements for their redox potentials. Redox-active …