Electronic do** in organic materials has remained an elusive concept for several
decades. It drew considerable attention in the early days in the quest for organic materials …

With the ever-growing development of multifunctional and miniature electronics, the
exploring of high-power microwatt-milliwatt self-charging technology is highly essential …

Thanks to the combined efforts of scientists in several research fields, the preceding decade
has witnessed considerable progress in the use of conjugated polymers as emerging …

There is a growing demand for flexible and wearable next-generation electronic devices that
must be capable of bending and stretching under mechanical deformation. In this regard …

Molecular do** is a crucial tool for controlling the charge-carrier concentration in organic
semiconductors. Each dopant molecule is commonly thought to give rise to only one …

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

Do** of thin films of semiconducting polymers provides control of their electrical
conductivity and thermopower. The electrical conductivity of semiconducting polymers rises …

Conjugated polymers are increasingly used as organic mixed ionic–electronic conductors in
electrochemical applications for neuromorphic computing, bioelectronics, and energy …

Here, an effective design strategy of polymer thermoelectric materials based on structural
control in doped polymer semiconductors is presented. The strategy is illustrated for two …

It is demonstrated that the n‐type thermoelectric performance of donor–acceptor (D–A)
copolymers can be enhanced by a factor of> 1000 by tailoring the density of states (DOS) …