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Transient boiling critical heat flux on horizontal vertically oriented ribbon heater with treated surface condition in pool of water

http://hdl.handle.net/20.500.12678/0000007093
68d421ea-b94b-4e7c-bc58-cc1cf7db2568
7b743c72-d080-4396-bf1a-177ddebc3a7c
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Publication type
Journal article
Upload type
Publication
Title
Title Transient boiling critical heat flux on horizontal vertically oriented ribbon heater with treated surface condition in pool of water
Language en
Publication date 2016-01-25
Authors
Min Han Htet
Description
The deep understanding of transient pool boiling critical heat flux (CHF) phenomena with treated surface and its
correlation in water at saturated and subcooled conditions are becoming increasingly important for the database
for the further enhancement of the design of liquid cooling technologies. Transient CHF using horizontal
cylinders with different surfaces have been reported. However, there is a need to find the effect of surface
wettability (contact angle) on transient CHF. This paper aims to study the steady and transient CHF due to
exponentially increasing heat inputs,Q=Q0exp(t τ) , using horizontal vertically oriented platinum ribbon in a
pool of water with respect to pressure, subcooling, surface roughness and contact angle. The exponential period,
 , was varied from 5 ms to 10 s. We used three ribbon heaters with different surfaces, namely, commercial
surface (CS), treated surface I (TS-I) polished by buff paper together with alumina, and treated surface II (TS-II)
finished by emery paper. For the surface condition, surface roughness and contact angle of each ribbon were
measured prior to pool boiling experiment. The acquired non-boiling heat transfer, steady and transient CHF
were evaluated with existing corresponding equations. The steady-state CHFs measured on the TS-I were tested
with the corresponding results of commercial surface. The three groups of transient CHF with different physical
mechanisms, the enhancement of transient CHF in light of surface condition and transient CHF degradation
depending on pressure and subcooling were reported.
Keywords
Transient critical heat flux, Ribbon, Surface roughness, Contact angle, Treated surface
Identifier DOI: 10.1299/mej.15-00438
Journal articles
JSME
JSME Mechanical Engineering Journal
19 pages
Vol.3, No.3, 2016
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