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Pool Boiling Characteristics on the Microstructured surfaces with Both Rectangular Cavities and Channels
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 Title & Authors
Pool Boiling Characteristics on the Microstructured surfaces with Both Rectangular Cavities and Channels
Kim, Dong Eok; Park, Su Cheong; Yu, Dong In; Kim, Moo Hwan; Ahn, Ho Seon; Myung, Byung-Soo;
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Based on a surface design with rectangular cavities and channels, we investigated the effects of gravity and capillary pressure on pool-boiling Critical Heat Flux (CHF). The microcavity structures could prevent liquid flow by the capillary pressure effect. In addition, the microchannel structures contributed to induce one-dimensional liquid flow on the boiling surface. The relationship between the CHF and capillary flow was clearly established. The driving potentials for the liquid supply into a boiling surface can be generated by the gravitational head and capillary pressure. Through an analysis of pool boiling and visualization data, we reveal that the liquid supplement to maintain the nucleate boiling condition on a boiling surface is closely related to the gravitational pressure head and capillary pressure effect.
Critical Heat Flux;Micro-structured Surface;Gravity Pressure Head;Capillary Pressure;
 Cited by
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