Entropy engineering in thermoelectric materials involves a deliberate manipulation of
entropy-related effects to boost performance. It revolves around designing materials to …

To satisfy the requirements of practical applications, thermoelectric generators should be
highly efficient and mechanically robust. Recently, progress in designing high-performance …

The high-entropy concept provides extended, optimized space of a composition, resulting in
unusual transport phenomena and excellent thermoelectric performance. By tuning electron …

We stabilize multiscale defect structures involving interstitial Cu, displaced Pb and Se atoms
from the regular lattice points, dislocations prompted by scarce anion vacancies, and …

To facilitate the development of thermoelectric modules for various operating temperature
ranges, a connection technology that is suitable for heat-sensitive thermoelectric materials …

High carrier mobility is critical to improving thermoelectric performance over a broad
temperature range. However, traditional doping inevitably deteriorates carrier mobility …

Sulfides are well investigated as thermoelectric materials but their performance is typically
limited by low electrical conductivity. High electrical performance in Cu3SbS4 is reported by …

Segmented thermoelectric (TE) legs are promising for improving heat‐electricity conversion
efficiency, but their practical applications are still limited by the lack of cost‐effective interface …

Thermoelectric materials can realize direct and mutual conversion between electricity and
heat. However, developing a strategy to improve high thermoelectric performance is …

High-entropy engineering effectively reduces lattice thermal conductivity (κ L) in
thermoelectric (TE) materials; however, the chemical complexity of multiple elements in high …