Access the full text.
Sign up today, get DeepDyve free for 14 days.
H Ohta (1997)
Experiments on microgravity boiling heat transfer by using transparent heatersNucl. Eng. Des., 175
D Serret, D Brutin, O Rahli, L Tadrist (2010)
Convective boiling between 2D plates: microgravity influence on bubble growth and detachmentMicrogravity Sci. Technol., 22
JS Sitter, TJ Snyder, JN Chung, PL Marston (1998)
Terrestrial and microgravity pool boiling heat transfer from a wire in an acoustic fieldInt. J. Heat Mass Transf., 41
GP Celata, M Cumo, M Gervasi, G Zummo (2009)
Quenching experiments inside 6.0 mm tube at reduced gravityInt. J. Heat Mass Transf., 52
KN Rainey, SM You, S Lee (2003)
Effect of pressure, subcooling, and dissolved gas on pool boiling heat transfer from microporous, square pin-finned surfaces in FC-72Int. J. Heat Mass Transf., 46
R Raj, J Kim, J Mcquillen (2012)
Pool boiling heat transfer on the international space station: experimental results and model verificationJ. Heat Transf.-Trans. ASME, 134
C Konishi, H Lee, I Mudawar, MM Hasan, HK Nahra, NR Hall, JD Wagner, RL May, JR Mackey (2015)
Flow boiling in microgravity: Part 2–Critical heat flux interfacial behaviorExp. Data Model Config., 15
H Honda, JJ Wei (2003)
Effects of fin geometry on boiling heat transfer from silicon chips with micro-pin-fins immersed in FC-72Int. J. Heat Mass Transf., 46
YF Xue, JF Zhao, JJ Wei, J Li, D Guo (2011)
Wan, experimental study of nucleate pool boiling of FC-72 on smooth surface under microgravityMicrogravity Sci. Technol., 23
M Narcy, E Malmazet, C Colin (2014)
Flow boiling in tube under normal gravity and microgravity conditionsInt. J. Multiphase Flow, 60
S Luciani, D Brutin, C Le Niliot, O Rahli, L Tadrist (2008)
Flow boiling in minichannels under normal, hyper-, and microgravity: local heat transfer analysis using inverse methodsJ. Heat Transf., 130
JP O’Connor, SM You (1995)
A painting technique to enhance pool boiling heat transfer in FC-72ASME J. Heat Transf., 117
GP Celata (2007)
Flow boiling heat transfer in microgravity: recent resultsMicrogravity Sci. Technol., 19
C Colin, O Kannengieser, W Bergez, M Lebon, J Sebilleau, M Sagan, S Tanguy (2017)
Nucleate pool boiling in microgravity: recent progress and future prospects.Comptes Rendus - Mécanique, 345
Y Ma, JN Chung (2001)
An experimental study of critical heat flux (CHF) in microgravity forced-convection boilingInt. J. Multiphase Flow, 27
C Konishi, H Lee, I Mudawar, MM Hasan, HK Nahra, NR Hall, JD Wagner, RL May, JR Mackey (2015)
Flow boiling in microgravity: Part 1–Interfacial behavior and experimental heat transfer resultsInt. J. Heat Mass Transf., 81
C Baltis, GP Celata, M Cumo, L Saraceno, G Zummo (2012)
Gravity influence on heat transfer rate in flow boilingMicrogravity Sci. Technol., 24
M Kureta, H Akimoto (2002)
Critical heat flux correlation for subcooled boiling flow in narrow channelsInt. J. Heat Mass Transf., 45
P Di Marco (2003)
Review of reduced gravity boiling heat transfer: European researchThermal Eng. Micrograv., 20
JF Zhao (2010)
Two-phase flow and pool boiling heat transfer in microgravityInt. J. Multiphase Flow, 36
H Ohta (2003)
Review of reduced gravity boiling heat transfer: Japanese researchJ. Jpn. Soc. Micrograv. Appl., 20
O Kawanami, H Azuma, H Ohta (2007)
Effect of gravity on cryogenic boiling heat transfer during tube quenchingInt. J. Heat Mass Transf., 50
M Saito, N Yamaoka, K Miyazaki, M Kinoshita, Y Abe (1994)
Boiling two-phase flow under microgravityNucl. Eng. Des., 146
J Kim, JF Benton, D Wisniewski (2002)
Pool boiling heat transfer on small heaters: effect of gravity and subcoolingInt. J. Heat Mass Transf., 45
Y Ma, JN Chung (1998)
An experimental study of forced convection boiling in microgravityInt. J. Heat Mass Transf., 41
JR Herman Merte (2004)
Momentum effects in steady nucleate pool boiling during microgravityAnnals New York Acad. Sci., 1027
C Baldassari, M Marengo (2013)
Flow boiling in microchannels and microgravityProg. Energy Combust. Sci., 39
D Brutin, V Ajaev, L Tadrist (2013)
Pressure drop and void fraction during flow boiling in rectangular minichannels in weightlessnessAppl. Thermal Eng., 51
VK Dhir, GR Warrior, E Aktinol, D Chao, J Eggers, W Sheredy, W Booth (2012)
Nucleate pool boiling experiments (NPBX) on the international space stationMicrogravity Sci. Technol., 24
J Kim (2003)
Review of reduced gravity boiling heat transfer: US researchThermal Eng. Micrograv., 20
T Oka, Y Abe, YH Mori, A Nagashima (1995)
Pool boiling of n-pentane, CFC113, and water under reduced gravity: parabolic flight experiments with a transparent heaterJ. Heat Transf., 117
Y Ma, JN Chung (2001)
A study of bubble dynamics in reduced gravity forced-convection boilingInt. J. Heat Mass Transf., 44
YH Zhang, JJ Wei, YF Xue, X Kong, JF Zhao (2014)
Bubble dynamics in nucleate pool boiling on micro-pin-finned surfaces in microgravityAppl. Thermal Eng., 70
YF Xue, JF Zhao, JJ Wei, YH Zhang, BJ Qi (2013)
Experimental study of nucleate pool boiling of FC-72 on micro-pin-finned surface under microgravityInt. J. Heat Mass Transf., 63
H Zhang, I Mudawar, MM Hasan (2005)
Flow boiling CHF in microgravityInt. J. Heat Mass Transf., 48
GP Celata, M Cumo, M Gervasi, G Zummo (2007)
Flow pattern analysis of flow boiling in microgravity.Multiph. Sci. Technol., 19
P Di Marco, GR Warrior, G Memoli, T Takamasa, A Tomiyama, S Hosokawa (2003)
Influence of electric field on single gas-bubble growth and detachment in microgravityInt. J. Multiphase Flow, 29
C Konishi, I Mudawar (2015)
Review of flow boiling and critical heat flux in microgravityInt. J. Heat Mass Transf., 80
The flow boiling heat transfer characteristics of subcooled air-dissolved FC-72 on a smooth surface (chip S) were studied in microgravity by utilizing the drop tower facility in Beijing. The heater, with dimensions of 40 × 10 × 0.5 mm3 (length × width × thickness), was combined with two silicon chips with the dimensions of 20 × 10 × 0.5 mm3. High-speed visualization was used to supplement observation in the heat transfer and vapor-liquid two-phase flow characteristics. In the low and moderate heat fluxes region, the flow boiling of chip S at inlet velocity V = 0.5 m/s shows almost the same regulations as that in pool boiling. All the wall temperatures at different positions along the heater in microgravity are slightly lower than that in normal gravity, which indicates slight heat transfer enhancement. However, in the high heat flux region, the pool boiling of chip S shows much evident deterioration of heat transfer compared with that of flow boiling in microgravity. Moreover, the bubbles of flow boiling in microgravity become larger than that in normal gravity due to the lack of buoyancy Although the difference of the void fraction in x-y plain becomes larger with increasing heat flux under different gravity levels, it shows nearly no effect on heat transfer performance except for critical heat flux (CHF). Once the void fraction in y-z plain at the end of the heater equals 1, the vapor blanket will be formed quickly and transmit from downstream to upstream along the heater, and CHF occurs. Thus, the height of channel is an important parameter to determine CHF in microgravity at a fixed velocity. The flow boiling of chip S at inlet velocity V = 0.5 m/s shows higher CHF than that of pool boiling because of the inertia force, and the CHF under microgravity is about 78–92% of that in normal gravity.
Microgravity - Science and Technology – Springer Journals
Published: Jun 1, 2018
Read and print from thousands of top scholarly journals.
Already have an account? Log in
Bookmark this article. You can see your Bookmarks on your DeepDyve Library.
To save an article, log in first, or sign up for a DeepDyve account if you don’t already have one.
Copy and paste the desired citation format or use the link below to download a file formatted for EndNote
Access the full text.
Sign up today, get DeepDyve free for 14 days.
All DeepDyve websites use cookies to improve your online experience. They were placed on your computer when you launched this website. You can change your cookie settings through your browser.