Nowadays, organic thermoelectric (TE) materials have attracted considerable attention due
to their unique merits, eg, light‐weight, high mechanical flexibility, nontoxicity, easy …

Advances in miniaturized portable electronics and progress on novel enabling technologies,
consequently accompanied by power consumption downgraded from the scale of milliwatts …

Softening of thermoelectric generators facilitates conformal contact with arbitrary-shaped
heat sources, which offers an opportunity to realize self-powered wearable applications …

With the rapid development of intelligent devices, flexible robots, medical monitors, and
electronic skins, stretchable wireless power supplies are in great demand. Thermoelectric …

Mimicking multiple perceptions of human skin is a basic requirement for artificial intelligence
electronic skin (e-skin) perception. Despite significant advances in e-skin for multifunctional …

Intrinsically stretchable organic solar cells (IS‐OSCs) have been recently spotlighted for their
omnidirectional stretchability, seamless integrability to any surface, and facile fabrication …

Thermoelectric generators (TEGs) demonstrate great potential for flexible and wearable
electronics due to the direct electrical energy harvested from waste heat. Good wearability …

Over the past decades, poly (3, 4-ethylenedioxythiophene): polystyrene sulfonate (PEDOT:
PSS) has emerged as one of the most attractive conducting polymers for organic electronics …

Conducting polymer-based thermoelectric materials are considered the most promising
candidates for applying to wearable thermoelectric devices because of their high electrical …

Thermoelectric (TE) generators that are capable of providing sustainable energy conversion
under dynamic mechanical stresses have been explored for realizing autonomous wearable …