Study on Heat Transfer Properties of Flat Heat Pipe with Conical Capillary Wicks

With the development of mechanical and electronic equipments, thermal management problem becomes more and more challenging. In order to solve this problem, according to the bionics principle, a new structure flat heat pipe(FHP), based on the micro structure of the Calathea zebrine, using nano-scale...

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Veröffentlicht in:Ji xie gong cheng xue bao 2015-12, Vol.51 (24), p.132-138
Hauptverfasser: Li, Hongchuan, Ji, Xianbing, Zheng, Xiaohuan, Yang, Wolong, Xu, Jinliang
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container_end_page 138
container_issue 24
container_start_page 132
container_title Ji xie gong cheng xue bao
container_volume 51
creator Li, Hongchuan
Ji, Xianbing
Zheng, Xiaohuan
Yang, Wolong
Xu, Jinliang
description With the development of mechanical and electronic equipments, thermal management problem becomes more and more challenging. In order to solve this problem, according to the bionics principle, a new structure flat heat pipe(FHP), based on the micro structure of the Calathea zebrine, using nano-scale copper powder as sintered material, is constructed with conical capillary wicks, and its thermal performance is investigated experimentally with deionized water used as the working fluid. The effect of heating power, inclination angle and capillary wicks through oxidation on thermal performance of the FHP are studied. The results show that the existence of the multi-scale pore gap of the conical capillary wicks not only realized the vapor escape from large pore gap and liquid suck from small pore gap, but also shortened the liquid flow path, and reduced the flow resistance, as well as expanded the heat transfer area, thus greatly improved the heat transfer performance of the FHP. The new structure FHP has good ther
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In order to solve this problem, according to the bionics principle, a new structure flat heat pipe(FHP), based on the micro structure of the Calathea zebrine, using nano-scale copper powder as sintered material, is constructed with conical capillary wicks, and its thermal performance is investigated experimentally with deionized water used as the working fluid. The effect of heating power, inclination angle and capillary wicks through oxidation on thermal performance of the FHP are studied. The results show that the existence of the multi-scale pore gap of the conical capillary wicks not only realized the vapor escape from large pore gap and liquid suck from small pore gap, but also shortened the liquid flow path, and reduced the flow resistance, as well as expanded the heat transfer area, thus greatly improved the heat transfer performance of the FHP. 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subjects Capillarity
Flats
Heat transfer
Nanostructure
Oxidation
Porosity
Thermal resistance
Wicks
title Study on Heat Transfer Properties of Flat Heat Pipe with Conical Capillary Wicks
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