Doping is essential to manipulate the electrical performance of both thermoelectric (TE)
materials and organic semiconductors (OSCs). Although organic thermoelectric (OTE) …

While a complete understanding of organic semiconductor (OSC) design principles remains
elusive, computational methods─ ranging from techniques based in classical and quantum …

Organic semiconductor materials have advantages of low cost, light weight, mechanical
flexibility and low-temperature solution processability over large areas, enabling the …

Conjugated backbones play a fundamental role in determining the electronic properties of
organic semiconductors. On the basis of two solution-processable dihydropyrrolo [3, 4-c] …

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) …

The enormous demand for waste heat utilization and burgeoning eco‐friendly wearable
materials has triggered huge interest in the development of thermoelectric materials that can …

Thermoelectric (TE) materials are receiving increasing attention due to their ability to directly
converting heat to electricity. They are used to harvest electrical energy from the wasted heat …

Tuning carrier concentration via chemical doping is the most successful strategy to optimize
the thermoelectric figure of merit. Nevertheless, how the dopants affect charge transport is …

Oxide perovskite materials have a long history of being investigated for thermoelectric
applications. Compared to the state-of-the-art tin and lead chalcogenides, these perovskite …

Organic thermoelectric (OTE) materials have attracted intensive attention because of their
promising applications in flexible electricity generators and ultrathin solid cooling elements …