Research on the Heat Transfer Characteristics of a Loop Heat Pipe Used as Mainline Heat Transfer Mode for Spacecraft

被引:0
作者
WANG Lu [1 ,2 ]
MIAO Jianyin [1 ,2 ]
GONG Mingming [1 ,2 ]
ZHOU Qiang [1 ,2 ]
LIU Chang [1 ,2 ]
ZHANG Hongxing [1 ,2 ]
FAN Hanlin [1 ,2 ]
机构
[1] Beijing Key Laboratory of Space Thermal Control
[2] Institute of Spacecraft System Engineering
关键词
LHP; mainline heat transfer mode; heat transfer characteristics;
D O I
暂无
中图分类号
V444.3 [环境控制与生命保障设备];
学科分类号
082504 ;
摘要
An experimental research is conducted on the heat transfer characteristics of a loop heat pipe(LHP) used in the "mainline" heat transfer mode for spacecraft platform thermal control. The heat from multiple instruments scattered in different locations is collected by thermal control techniques such as axially grooved heat pipes and then transmitted to the radiant surface for dissipation through the LHP in an unified way. The research contents include the start-up characteristics, the operational stability characteristics, the operational blocking characteristics, the continuous blocking characteristics, the heat transfer capability, the thermal resistance, and the dynamic response characteristics under the change of the heat sink temperature. The results show that the higher the auxiliary starting power is, the easier it is to start the LHP; the higher the input power of the thermoelectric cooler is, the more beneficial it is to speed up the stabilization of the vapor-liquid interface in the condenser; the higher the blocking power, the shorter the blocking time of the LHP; the LHP can be operated stably within the heat sink temperature alteration process; the heat transfer ability is higher than 500 W with a systematic thermal resistance of 0.037°C/W.
引用
收藏
页码:736 / 744
页数:9
相关论文
共 20 条
[1]  
Study on a loop heat pipe for a long-distance heat transport under anti-gravity condition. Nakamura K,Odagiri K,Nagano H. Applied Thermal Engineering . 2016
[2]   Development and on-orbit operation of loop heat pipes on chinese circumlunar return and reentry spacecraft [J].
Zhang Hongxing ;
Mi Min ;
Miao Jianyin ;
Wang Lu ;
Chen Yang ;
Ding Ting ;
Ning Xianwen ;
Huo Yuhua .
JOURNAL OF MECHANICAL SCIENCE AND TECHNOLOGY, 2017, 31 (06) :2597-2605
[3]  
Experimental study of heat transfer and start-up of loop heat pipe with multiscale porous wicks[J] . Xianbing Ji,Ye Wang,Jinliang Xu,Yanping Huang. &nbspApplied Thermal Engineering . 2017
[4]  
Experimental study on loop heat pipe with two-wick flat evaporator[J] . Zhichun Liu,Dongdong Wang,Chi Jiang,Jinguo Yang,Wei Liu. &nbspInternational Journal of Thermal Sciences . 2015
[5]   AN EXPERIMENTAL STUDY ON THE PERFORMANCE OF A LOOP HEAT PIPE [J].
Wang, Y. ;
Cen, J. ;
Jiang, F. .
EXPERIMENTAL HEAT TRANSFER, 2015, 28 (01) :1-8
[6]  
Analysis of non-uniform heat loads on evaporators with loop heat pipes[J] . Tao Fang,Tingzhen Ming,C.P. Tso,Xiaoming Huang,Wei Liu. &nbspInternational Journal of Heat and Mass Transfer . 2014
[7]  
Loop heat pipes[J] . Yu.F. Maydanik. &nbspApplied Thermal Engineering . 2004 (5)
[8]  
Loop heat pipes in thermal control systems for"Obzor"spacecraft. Goncharov K A,Nikitkin M N,Golovin O A,et al. SAE 951555 . 1995
[9]  
Thermal performance of a multi-evaporator loop heat pipe with thermal masses and thermal electrical coolers. Jentung K,Ottenstein L. 13thInternational Heat Pipe Conference . 2004
[10]  
Visual Investigation on Startup Characteristics of a Novel Loop Heat Pipe. Wang X,Wei J. Applied Thermal Engineering . 2016