The long-standing popularity of thermoelectric materials has contributed to the creation of
various thermoelectric devices and stimulated the development of strategies to improve their …

Organic thermoelectric (TE) materials capitalize on advantages such as low thermal
conductivity, low-cost, eco-friendly, versatile processability, light-weight, mechanical …

With the development of flexible electronic devices such as organic electrodes, medical
sensors and light-emitting diodes, the conductive polymer, poly (3, 4 …

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

The recent re‐emergence of halide perovskites has received escalating interest for
optoelectronic applications. In addition to photovoltaics, the multifunctional nature of halide …

Skin-mountable physical sensors that can individually detect mechanical deformations with
high strain sensitivity within a broad working strain range and temperature variations with …

Incorporating inorganic thermoelectric fillers into conductive polymers is one promising
strategy to develop high-performance flexible thermoelectric films. However, due to the …

Thermoelectric (TE) materials are important for sustainable development because they can
directly convert heat into electricity. Compared with inorganic TE materials, conductive …

The development of flexible organic–inorganic thermoelectric composites constitutes a
promising material approach toward harvesting heat from the human body or environment to …

Thermoelectric materials have the ability to transform thermal energy into electrical energy
and vice versa. For an extended period of time, only inorganic materials have been …