As the worldwide energy crisis is worsened, thermoelectric materials that can harvest low‐
grade waste heat and directly convert it into electricity provide promising alternative energy …

This review explores the ever-evolving landscape of thermoelectric materials, focusing on
the latest trends and innovations in ceramics, thermally conductive gel-like materials, metals …

Cellulose opens for sustainable materials suitable for radiative cooling thanks to inherent
high thermal emissivity combined with low solar absorptance. When desired, solar …

Abundant heat is generated in household, industry and natural processes, and the majority
of the heat is dissipated in the environment as waste heat owing to the low heat utilization …

More than half of the waste heat rejected into the environment has temperatures lower than
100° C, which accounts for nearly 85 PWh/year worldwide. Efficiently harvesting low-grade …

It is of great significance to develop high‐performance n‐type ionic thermoelectric materials.
Herein, the turnover from p‐to n‐type and great improvement in the n‐type ionic Seebeck …

A paradigm ionogel consisting of ionic liquid (IL) and PVDF− HFP composites is made,
which inherently possesses dual‐function ionic thermoelectric (iTE) and piezoelectric (PE) …

The recovery of low-level thermal energy, the conversion of solar thermal energy and the
reuse of human thermal energy determine that thermoelectric materials are extremely …

Ionic liquid–based ionogels emerge as promising candidates for efficient ionic
thermoelectric conversion due to their quasi-solid state, giant thermopower, high flexibility …

Ionic conductors emerged as the next-generation thermoelectric (TE) materials mainly due
to their high thermopower, which is higher than that of the electronic conductors by 1–2 …