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contributor authorChauhan, Vidushi
contributor authorKumar, Manoj
contributor authorPatil, Anil Kumar
date accessioned2022-02-04T22:05:12Z
date available2022-02-04T22:05:12Z
date copyright9/18/2020 12:00:00 AM
date issued2020
identifier issn0022-1481
identifier otherht_142_12_122301.pdf
identifier urihttp://yetl.yabesh.ir/yetl1/handle/yetl/4274843
description abstractThe nucleate pool is a useful technique of heat dissipation in a variety of thermal applications. This study investigates the effect of the gridded metal surface (GMS) with and without protrusions on the heat transfer from a surface maintained at a temperature above the saturation temperature of water. The experimental data have been collected pertaining to boiling heat transfer at atmospheric pressure by varying the grid size of gridded metal surface with protrusions from 6 mm to 22.5 mm placed over a boiling surface having microporous coating. The mean particle diameter of coating is varied as 11, 24, and 66 μm during the experimentation. It is observed that the increase in the boiling heat transfer coefficient of the aluminum disk with GMS with protrusions of grid size 11.5 mm compared to that of the smooth boiling surface is found to be 10.7%. Furthermore, the effect of GMS having protrusions with coated surface on the heat transfer is studied. The results showed that by using GMS having protrusions and with coated surface, the heat transfer is further enhanced. The boiling heat transfer coefficient obtained in case of GMS with protrusions (grid size = 11.5 mm) and microporous-coated surface (dm = 66 μm) shows the maximum enhancement of 39.93% in comparison to the smooth surface.
publisherThe American Society of Mechanical Engineers (ASME)
titleHeat Transfer Enhancement in Pool Boiling of Distilled Water Using Gridded Metal Surface With Protrusions Over Microporous-Coated Surface
typeJournal Paper
journal volume142
journal issue12
journal titleJournal of Heat Transfer
identifier doi10.1115/1.4048089
journal fristpage0124501-1
journal lastpage0124501-13
page13
treeJournal of Heat Transfer:;2020:;volume( 142 ):;issue: 012
contenttypeFulltext


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