With the aggravation of global warming and extreme weather, cooling demand has
witnessed a continuous increase and is expected to increase tenfold by 2050. Radiative sky …

Radiative sky cooling cools an object on the earth by emitting thermal infrared radiation to
the cold universe through the atmospheric window (8–13 μm). It consumes no electricity and …

Passive radiative cooling using nanophotonic structures is limited by its high cost and poor
compatibility with existing end uses, whereas polymeric photonic alternatives lack weather …

Subambient daytime radiative cooling (SDRC) provides a promising electricity‐and cryogen‐
free pathway for global energy‐efficiency. However, current SDRC systems require stringent …

As a passive, effective, and renewable way of decreasing cooling energy requirements
without power input, radiative cooling has attracted considerable attention in the field of …

Daytime radiative coolers are used to pump excess heat from a target object into a cold
exterior space without energy consumption. Radiative coolers have become attractive …

Daytime radiative cooling provides an eco‐friendly solution to space cooling with zero
energy consumption. Despite significant advances, most state‐of‐the‐art radiative coolers …

Material emissivity engineering can boost energy efficiency in cooling and heating systems
by tailoring radiative heat exchange. However, practical energy saving often faces …

Atmospheric water, being ubiquitous, is extractable in an almost all-scope fashion: from
coasts to inland areas, besides being large in amount, thus providing us with a promising …

Sorption-and radiative sky cooling-based atmospheric water harvesting (AWH) technologies
hold promise to provide decentralized fresh water in highly remote and arid regions. The …