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

Thermoelectric generators (TEGs) can directly convert waste heat into electrical power. In
the last few decades, most research on thermoelectrics has focused on inorganic bulk …

The urgent demand for renewable energy has attracted widespread interest in polymer‐
based thermoelectric materials due to easy fabrication, high flexibility, low toxicity, low …

Recently, many efforts have been devoted to studying early-stage fire-warning materials
(EFWMs). Among those, thermoelectric effect-based EFWM (TE-EFWMs) are particularly …

In recent years, experimentation on organic conducting polymers has been escalated and
many interested researchers are looking forward to exploring more in the area of …

Organic thermoelectric (TE) materials have been widely investigated due to their good
stability, easy synthesis, and high electrical conductivity. Among them, polyaniline/carbon …

The thermoelectric (TE) performance of conducting polymers can be improved by the
incorporation of carbon nanomaterials. In this work, the impact of carbon black (CB) on …

Transparent and flexible thermoelectrics has been highly sought after for future wearable
devices. However, the main stumbling block to prevent its widespread adoption is the lack of …

Thermoelectric (TE) generators, based on thermoelectric materials, can efficiently convert
thermal energy into electricity via the Seebeck effect, showing great promise for waste-heat …

Global warming and pollution resulted from the increased power demand are some of the
present era challenges associated with power generation through fossil fuels. To provide a …