Simulation of, Optimization of, and Experimentation with Small Heat Pipes Produced Using Selective Laser Melting Technology

被引:2
作者
Zhou, Jianfeng [1 ]
Teng, Lai [2 ]
Shen, Yinyi [2 ]
Jin, Zhonghe [3 ]
机构
[1] Zhejiang Univ, Microsatellite Res Ctr, Hangzhou 310007, Peoples R China
[2] Huanjiang Lab, Shaoxing 311899, Peoples R China
[3] Key Lab Micronano Satellite Res Zhejiang Prov, Hangzhou 310058, Peoples R China
关键词
microsatellite; heat pipe; additive manufacturing technology; SLM; multi-objective optimization; FLOW; CONDENSATION;
D O I
10.3390/ma16216946
中图分类号
O64 [物理化学(理论化学)、化学物理学];
学科分类号
070304 ; 081704 ;
摘要
With the development of microsatellite technology, the heat generated by onboard components is increasing, leading to a growing demand for improved thermal dissipation in small satellites. Metal powder additive manufacturing technology offers the possibility of customizing and miniaturizing heat pipes to meet the specific requirements of small satellites. This article introduces a small-scale heat pipe designed using selective laser melting (SLM) technology. The heat pipe's material, structure, and internal working fluid were determined based on mission requirements. Subsequently, the SolidWorks 2021 software was used for heat pipe modeling, and the ANSYS 2021R2 finite element analysis software was employed to simulate the heat transfer performance of the designed heat pipe, confirming its feasibility. The heat pipe's structure was optimized using multi-objective regression analysis, considering various structural parameters, such as the channel diameter, vapor chamber height, and narrow gap width. The simulation results demonstrate that the optimized heat pipe achieved a 10.5% reduction in thermal resistance and an 11.6% increase in equivalent thermal conductivity compared to the original heat pipe. Furthermore, compared to conventional metal heat-conducting rods, the optimized heat pipe showed a 38.5% decrease in thermal resistance and a 62.19% increase in equivalent thermal conductivity. The heat pipe was then fabricated using a 3D printer (EOS M280), and a vacuum experimental system was established to investigate its heat transfer characteristics. The experimental results show that the heat pipe operated most efficiently at a heating power of 20 W, reached its maximum heat transfer capacity at 22 W, and had an optimal fill ratio of 30%. These results highlight the excellent performance of the heat pipe and the promising application prospects for SLM technology in the field of small satellites.
引用
收藏
页数:17
相关论文
共 33 条
[1]   CFD modeling of flow and heat transfer in a thermosyphon [J].
Alizadehdakhel, Asghar ;
Rahimi, Masoud ;
Alsairafi, Ammar Abdulaziz .
INTERNATIONAL COMMUNICATIONS IN HEAT AND MASS TRANSFER, 2010, 37 (03) :312-318
[2]   Analytical and experimental investigations on heat transport capability of axially grooved aluminium-methane heat pipe [J].
Anand, A. R. .
INTERNATIONAL JOURNAL OF THERMAL SCIENCES, 2019, 139 :269-281
[3]  
Annamalai N.R.F., 2012, Int. J. Therm. Sci, V54, P252
[4]   A CONTINUUM METHOD FOR MODELING SURFACE-TENSION [J].
BRACKBILL, JU ;
KOTHE, DB ;
ZEMACH, C .
JOURNAL OF COMPUTATIONAL PHYSICS, 1992, 100 (02) :335-354
[5]  
Cao Desheng, 2023, Proceedings of SPIE, DOI 10.1117/12.2672163
[6]   Thermal performance of a boiling and condensation enhanced heat transfer tube-stepped lattice finned tube [J].
Chen, Hanping ;
Mo, Haijun ;
Wan, Zhenping ;
Huang, Shufeng ;
Wang, Xiaowu ;
Zhu, Hongguan .
APPLIED THERMAL ENGINEERING, 2020, 173
[7]   Interfacial thermal resistance: Past, present, and future [J].
Chen, Jie ;
Xu, Xiangfan ;
Zhou, Jun ;
Li, Baowen .
REVIEWS OF MODERN PHYSICS, 2022, 94 (02)
[8]   Study on flow and heat transfer characteristics of heat pipe with axial "Ω"-shaped microgrooves [J].
Chen, Yongping ;
Zhang, Chengbin ;
Shi, Mingheng ;
Wu, Jiafeng ;
Peterson, G. P. .
INTERNATIONAL JOURNAL OF HEAT AND MASS TRANSFER, 2009, 52 (3-4) :636-643
[9]   Transient response of an axially-grooved aluminum-ammonia heat pipe with the presence of non-condensable gas [J].
Enke, Cristiano ;
Bertoldo Junior, Jorge ;
Vlassov, Valeri .
APPLIED THERMAL ENGINEERING, 2021, 183
[10]   Selective evaporation rate modeling of volatile binary mixture droplets [J].
Jeong, Chan Ho ;
Lee, Hyung Ju ;
Choi, Chang Kyoung ;
Lee, Seong Hyuk .
INTERNATIONAL JOURNAL OF HEAT AND MASS TRANSFER, 2021, 178