The efficacy of light-emitting diode cooling is anomalously augmented by deploying
nucleate boiling on graphene-nanoplatelets coated surface at sub-atmospheric pressures …

In boiling heat transfer, superhydrophobic surface is deemed to reduce the critical heat flux
(CHF) due to the immediate formation of an insulating vapor film that inhibits effective heat …

This study aims to preserve the superhydrophility and the ultrafast water permeation
property of the thermally cured graphene nanoplatelets (GNPs) coating after epoxy is added …

The enhancement of phase-change heat transfer in the two-phase closed thermosyphon
(TPCT) coated with graphene-nanoplatelets (GNPs) of different wettability is investigated …

Nucleate boiling efficiency can be significantly enhanced using the nanostructured
graphene surface. The wettability of the graphene nanoplatelets (GNPs) coated surface is …

The rate of water transport through graphene nanocapillaries is profoundly enhanced
compared to that in microscale capillaries due to the prevalence of exceptionally high …

Superwettable materials are destined for a wide range of multifunctional applications. An
ingenious, cost-effective yet simple method is proposed to control the superwettability of …

An effective passive two-phase light-emitting diode (LED) cooling system using thermally
cured graphene nanoplatelets (GNPs) coatings is introduced. The GNPs-coated surfaces …

This study explores the remarkable enhancement of light-emitting diode (LED) cooling
through nucleate boiling using hybrid coatings of graphene-nanoplatelets (GNP) and carbon …

Modifying the surface wettability at the solid-liquid interface can significantly improve flow
boiling heat transfer. The graphene nanoplatelets (GNPs) and epoxy additives form …