铝基3D打印聚碳酸酯脉动热管两相流的可视化研究

T. Arai, M. Kawaji, Yasushi Koito
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引用次数: 0

摘要

脉动热管是一种无源装置,与其他热管相比具有良好的传热能力。本文介绍了用3d打印机制作蛇形通道PHP的实验研究。PHP中的流道配置接近于市售的全铝制PHP。为了提高传热能力并实现流动可视化,在一侧用铝板作为传热面,在铝板上用3d打印机和聚碳酸酯长丝制作透明流道。铝板与聚碳酸酯流道的界面用耐热胶粘接,保证长期密封。HFE-7000作为工作液。用高速数字摄像机观察了PHP内的振荡两相流,并用小直径热电偶测量了蒸发器、绝缘子和冷凝器部分的瞬态表面温度。给出了不同加热器功率下PHP的两相流和热特性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Visualization of Two-Phase Flow in 3D Printed Polycarbonate Pulsating Heat Pipe With Aluminum Substrate
A pulsating heat pipe (PHP) is a passive device with a good heat transport capability compared to other heat pipes. This paper describes an experimental investigation of a PHP with a serpentine channel fabricated by using a 3-D printer. The configuration of the flow channels in the PHP was close to that of commercially available PHPs made entirely of aluminum. To improve the heat transport capability and enable flow visualization, an aluminum plate was used on one side as the heat-transfer surface, on which transparent flow channels were fabricated by a 3-D printer and a polycarbonate filament. The interface between the aluminum plate and polycarbonate flow channel was cemented with a heat-resistant glue to ensure long term sealing. HFE-7000 was used as a working fluid. Oscillating two-phase flow in the PHP was observed with a high-speed digital video camera and transient surface temperatures at evaporator, insulator and condenser sections were measured by fine diameter thermocouples. The two-phase flow and thermal characteristics of the PHP at different heater power levels are presented.
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