Thermoelectric materials are capable of converting heat and electricity to each other.
Thermoelectric devices can be miniaturized and highly integrated with existing …

Compared with traditional cooling techniques, thermoelectric coolers have drawn massive
attention for small-scale cooling applications, particularly in medical practices …

In this paper, we review recent advances in the development of flexible thermoelectric
materials and devices for wearable human body-heat energy harvesting applications. We …

The conversion of body heat into electrical energy using a thermoelectric (TE) power
generator is useful for wearable self-powered mobile electronic systems such as medical …

The looming impact of climate change and the diminishing supply of fossil fuels both
highlight the need for a transition to more sustainable energy sources. While solar and wind …

Flexible thermoelectric generators (f-TEGs) are emerging as a semipermanent power source
for self-powered sensors, which is an important area of research for next-generation smart …

Wearable electronics play a crucial role in advancing the rapid development of artificial
intelligence, and as an attractive future vision, all-in-one wearable microsystems integrating …

TEG (Thermoelectric power generator) modules are attractive energy harvesters, as they
can deliver electrical output power from the temperature difference of all sorts of things …

Due to the direct conversion between thermal and electrical energy, thermoelectric materials
and their devices exhibit great potential for power generation and refrigeration. With the …

Screen printing allows for direct conversion of thermoelectric nanocrystals into flexible
energy harvesters and coolers. However, obtaining flexible thermoelectric materials with …