Influence of IMV on Space Station
Commenced in January 2007
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Edition: International
Paper Count: 32797
Influence of IMV on Space Station

Authors: Fu Shiming, Pei Yifei

Abstract:

To study the impact of the inter-module ventilation (IMV) on the space station, the Computational Fluid Dynamic (CFD) model under the influence of IMV, the mathematical model, boundary conditions and calculation method are established and determined to analyze the influence of IMV on cabin air flow characteristics and velocity distribution firstly; and then an integrated overall thermal mathematical model of the space station is used to consider the impact of IMV on thermal management. The results show that: the IMV has a significant influence on the cabin air flow, the flowrate of IMV within a certain range can effectively improve the air velocity distribution in cabin, if too much may lead to its deterioration; IMV can affect the heat deployment of the different modules in space station, thus affecting its thermal management, the use of IMV can effectively maintain the temperature levels of the different modules and help the space station to dissipate the waste heat.

Keywords: CFD, Environment control and life support, Space station, Thermal management, Thermal mathematical model.

Digital Object Identifier (DOI): doi.org/10.5281/zenodo.1056460

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References:


[1] Wieland P O. Deigning for Human Presence in Space: An Introduction to Environmental Control and Life Support Systems. NASA RP-1324:5~48, 185 219~225, 1994
[2] Hofacker W, Huckler M. Analysis of flow field in the HERMES cabin. SAE901286
[3] Johannes A, Dieter S, Michael R. Precise convective cooling simulation of electronic equipment under various g-conditions. Proceedings of the 4th European symposium on space environmental and control systems, Florence Italy, Oct.1991
[4] Andreas N, Markus H. thermophydraulic analysis of the cooling air flow in a rack. SAE932134
[5] Son C, Barker R S. U.S. lab-A module cabin air distribution in space station. SAE932192
[6] Son C H, Barker R S, McGraw E H. Numerical Prediction and Evaluation of Space Station Intermodule Ventilation and Air Distribution performance. SAE941509
[7] Zapata J L, Chang H S. Analysis of Air Ventilation and Crew Comfort for the International Space Station Cupola. SAE 2002-01-2340
[8] Darrah Speiser, David Pines, Chang H S. Computational Fluid Dynamic of Air Flow in Node 1 of the International Space Station, SAE2005-01-2797
[9] Chang H S. Integrated Computational Fluid Dynamics Ventilation Model for the International Space Station. SAE2005-01-2794
[10] FU Shiming, XU Xiaoping, LI Jindong, et al , CFD Analysis of Air Velocity Distribution in Space Station Cabin, Journal of Astronautics, Vol.27 No.6, 2006: 1137-1141.( in Chinese)
[11] FU Shiming, XU Xiaoping, LI Jindong, and PAN Zengfu. The Application of MFR in Ventilation System Design. SAE2007-01-3072.
[12] Sargent D H. Minimum ventilation velocities for maintaining space station crew comfort. SAE932192
[13] FU Shiming, Xu Xiaoping, LI Jindong, PAN Zengfu. A space station, integrated mathematical model of the overall heat. Journal of Institute of Equipment Command Technology. 2007.6,18 (3): 58 ~ 62( in Chinese)
[14] FU Shiming, XU Xiaoping, PEI Yifei. IOTMM building and analysis of a space station. 2009 annual academic symposium of CASC 10th information network on space environment engineering, Xiamen China, June.2009 ( in Chinese)