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Liquid film–induced critical heat flux enhancement on structured surfaces

A liquid film with two distinct contact lines underneath bubbles during boiling on structured surfaces has been discovered. Enhancing critical heat flux (CHF) during boiling with structured surfaces has received much attention because of its important implications for two-phase flow. The role of sur...

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Published in:Science advances 2021-06, Vol.7 (26)
Main Authors: Li, Jiaqi, Kang, Daniel, Fazle Rabbi, Kazi, Fu, Wuchen, Yan, Xiao, Fang, Xiaolong, Fan, Liwu, Miljkovic, Nenad
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cited_by cdi_FETCH-LOGICAL-c367t-6a59b115daa190409bcda4f2a13112e3ef2b6323a65b4e4a9ad11345692d7d1a3
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container_issue 26
container_start_page
container_title Science advances
container_volume 7
creator Li, Jiaqi
Kang, Daniel
Fazle Rabbi, Kazi
Fu, Wuchen
Yan, Xiao
Fang, Xiaolong
Fan, Liwu
Miljkovic, Nenad
description A liquid film with two distinct contact lines underneath bubbles during boiling on structured surfaces has been discovered. Enhancing critical heat flux (CHF) during boiling with structured surfaces has received much attention because of its important implications for two-phase flow. The role of surface structures on bubble evolution and CHF enhancement remains unclear because of the lack of direct visualization of the liquid- and solid-vapor interfaces. Here, we use high-magnification in-liquid endoscopy to directly probe bubble behavior during boiling. We report the previously unidentified coexistence of two distinct three-phase contact lines underneath growing bubbles on structured surfaces, resulting in retention of a thin liquid film within the structures between the two contact lines due to their disparate advancing velocities. This finding sheds light on a previously unidentified mechanism governing bubble evolution on structured surfaces, which has notable implications for a variety of real systems using bubble formation, such as thermal management, microfluidics, and electrochemical reactors.
doi_str_mv 10.1126/sciadv.abg4537
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subjects Applied Sciences and Engineering
Physical Sciences
SciAdv r-articles
title Liquid film–induced critical heat flux enhancement on structured surfaces
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