Evaluation of the thermal performance of housing envelopes as passive cooling systems

Javier AscanioVillabona, Brayan Eduardo Tarazona Romero, Miguel Arlenso Duran, Omar Lengerke, Luis Betancur
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Abstract

Over the years, climate change has generated an increase in the average temperature of the planet, which has led to greater consumption of electrical energy for the use of air conditioning systems. Insulating envelope materials are considered a viable passive solution as they offer internal air conditioning, cooling, and/or heating of buildings that lead to thermal comfort with reduced energy consumption. This article compares the application of different insulating materials in an existing single-family home located in a hot-dry climate. To this end, the procedural methodology has been applied by carrying out a bibliographic review of different involutes currently used in the construction of the buildings and 14 models are proposed that will be simulated under the same input variables of the base model and meteorological data of the city of Bucaramanga validated from a meteorological station located on site. The results of the simulations show that all 14 models show a decrease in temperature with reference to the "base model"; This difference can be explained by the presence of the selected materials that slightly change the thermal properties of the wall. Finally, this research allowed us to determine that the occupants of the simulated spaces in the base model are inside the thermal comfort range by 61.96%, which represents 5,438 hours of the modeled year, having 38.03% of hours of discomfort in the measured time. This study can be useful for the selection of envelopes and different buildings with passive cooling requirements.
评估作为被动冷却系统的房屋围护结构的热性能
多年来,气候变化导致地球平均气温上升,从而增加了空调系统的电能消耗。隔热围护材料被认为是一种可行的被动式解决方案,因为它们可以为建筑物提供内部空调、冷却和/或加热,从而在降低能耗的同时带来热舒适度。本文比较了不同隔热材料在位于干热气候地区的现有单户住宅中的应用。为此,我们采用了程序性方法,对目前建筑中使用的不同隔热材料进行了文献综述,并提出了 14 个模型,这些模型将在基础模型的相同输入变量和布卡拉曼加市气象站的气象数据下进行模拟。模拟结果表明,与 "基础模型 "相比,所有 14 个模型的温度都有所下降;这种差异可以用所选材料的存在略微改变了墙体的热性能来解释。最后,这项研究让我们确定,基础模型中模拟空间的居住者有 61.96% 处于热舒适范围内,这相当于模型年的 5438 个小时,在测量时间内有 38.03% 的不适时间。这项研究有助于选择有被动冷却要求的围护结构和不同建筑。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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