基于热流率的热惯性新模型

J. VAN DER MAAS∗, E. Maldonado
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引用次数: 18

摘要

在PASCOOL项目的框架内,已经进行了理论和实验研究,以提高对用于建筑物被动冷却的大型建筑元素的存在和分布的定量理解。本文提出了一种新的热学模型,该模型是基于可由半无限壁面的热方程解解析得到的参数——射流系数。为了验证热惯性模型的有效性,测量了不同建筑区域对一系列热增益步骤的瞬态热响应。观察到,随着增益的每一步,空间的平均表面温度与时间的平方根成比例地增加,这与溢出率模型的预测一致。研究结果为制定简单的被动冷却设计指导方针提供了依据。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
a New Thermal Inertia Model Based on Effusivity
In the framework of the PASCOOL project, theoretical and experimental studies have been performed to improve the quantitative understanding of the presence and distribution of massive building elements for the passive cooling of buildings. A new thermal model, based on effusivity, a parameter that can be analytically derived from the solution of the heat equation for a semi-infinite wall, was developed. The transient thermal response of a variety of building zones to a series of steps in heat gain has been measured for the validation of the thermal inertia models. It was observed that, for each step in gain, the mean surface temperature of the spaces increases proportionally to the square root of time, as predicted by the effusivity model. The results allowed the formulation of simple passive cooling design guidelines for buildings.
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