Thermoelectricity, green technology which can convert huge free thermal energy to
electricity without time and geography limitations, is vital for bright future energy to alleviate …

With the current emphasis on electrified vehicles, the use of internal combustion engines
(ICEs) as the main propulsion source is challenged, especially for passenger cars. Even …

Although Ga do** can weaken the electron phonon coupling in n-type PbTe, Ga-doped
PbTe has a relatively low carrier concentration (n) and high lattice thermal conductivity (κlat) …

Engineering semiconductor devices requires an understanding of charge carrier mobility.
Typically, mobilities are estimated using Hall effect and electrical resistivity meausrements …

The development of n-type high-performance PbTe thermoelectric materials for matching its
p-type counterparts is an urgent matter to expand its practical applications. Here, we …

Crystalline thermoelectrics have been developed to be potential candidates for power
generation and electronic cooling, among which SnSe crystals are becoming the most …

Thermoelectric (TE) materials have the capability of converting heat into electricity, which
can improve fuel efficiency, as well as providing robust alternative energy supply in multiple …

The past two decades have witnessed the rapid growth of thermoelectric (TE) research.
Novel concepts and paradigms are described here that have emerged, targeting superior TE …

There has been a renaissance of interest in exploring highly efficient thermoelectric
materials as a possible route to address the worldwide energy generation, utilization, and …

Thermoelectric generators, capable of directly converting heat into electricity, hold great
promise for tackling the ever-increasing energy sustainability issue. The thermoelectric …