Calautit John Kaiser, Chaudhry Hassam Nasarullah, Hughes Ben Richard
Department of Mechanical Engineering, University of Sheffield, Sheffield S10 2TN, UK.
School of Energy, Geoscience, Infrastructure and Society, Heriot-Watt University, Dubai, United Arab Emirates.
Data Brief. 2015 Oct 3;5:424-8. doi: 10.1016/j.dib.2015.09.027. eCollection 2015 Dec.
The data presented in this article were the basis for the study reported in the research articles entitled 'Climate responsive behaviour heat pipe technology for enhanced passive airside cooling' by Chaudhry and Hughes [10] which presents the passive airside cooling capability of heat pipes in response to gradually varying external temperatures and related to the research article "CFD and wind tunnel study of the performance of a uni-directional wind catcher with heat transfer devices" by Calautit and Hughes [1] which compares the ventilation performance of a standard roof mounted wind catcher and wind catcher incorporating the heat pipe technology. Here, we detail the wind tunnel test set-up and inflow conditions and the methodologies for the transient heat pipe experiment and analysis of the integration of heat pipes within the control domain of a wind catcher design.
本文所呈现的数据是乔杜里和休斯撰写的题为《用于增强空侧被动冷却的气候响应行为热管技术》的研究论文[10]中所报道研究的基础,该论文阐述了热管响应逐渐变化的外部温度的空侧被动冷却能力,并且与卡拉蒂特和休斯撰写的研究论文《带有传热装置的单向捕风器性能的CFD和风洞研究》[1]相关,该论文比较了标准屋顶安装捕风器和采用热管技术的捕风器的通风性能。在此,我们详细介绍风洞试验装置和流入条件,以及瞬态热管实验的方法,以及在捕风器设计控制范围内对热管集成进行分析的方法。