A Passive Solar Air-House Conditioning System Integrated in Tunisian households

Majdi Hazami, S. Kooli, N. Naili
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Abstract

In Tunisia, the buildings’ space heating sector represents a major part of the total energy consumption budget. These issues have been increasingly prominent concerns since the energy crisis. Hence, interests have been growing to adopt renewable energies as viable sources of energy that offer a wide range of exceptional benefits with an important degree of promise, especially in the buildings sector. However, the management of renewable energy sources for space air heating/cooling is usually not economically feasible compared with the traditional carriers. In this chapter, we present a passive energy system, called air-conditioning cupboard which exploits renewable energies (hot water supplied from solar collector [40-50°C] and cold groundwater (19°C)) as thermal sources, is conceived and tested in our laboratory (Laboratory of Thermal Procedure, LPT Tunisia). To evaluate the air-conditioning cupboard efficiency indoor experiments were carried out under varied Tunisian environmental conditions for several days. Results show that the air-heating system has good thermal effectiveness (80 %). It permits to the maintenance of the temperature inside the experimented room at the range of [24-27°C] during the cold months and [20-23°C] during hot months. A theoretical model is employed for the sizing of the air-conditioning cupboard to obtain the required temperature values. This model allows also the determination of the air-cupboard conditioning thermal performances.
被动式太阳能空调系统在突尼斯家庭中的集成
在突尼斯,建筑物的空间供暖部门占能源消耗预算总额的主要部分。自能源危机以来,这些问题日益受到关注。因此,人们越来越有兴趣采用可再生能源作为可行的能源,因为可再生能源具有广泛的特殊效益,具有很大的前景,特别是在建筑领域。然而,与传统载体相比,可再生能源用于空间空气加热/冷却的管理通常在经济上是不可行的。在本章中,我们提出了一种被动式能源系统,称为空调柜,它利用可再生能源(太阳能集热器提供的热水[40-50°C]和冷地下水(19°C))作为热源,在我们的实验室(突尼斯LPT热程序实验室)进行了构思和测试。为了评价空调柜体效率,在突尼斯不同的环境条件下进行了数天的室内实验。结果表明,该空气加热系统具有良好的热效率(80%)。它允许实验室内的温度在寒冷的月份保持在[24-27°C],在炎热的月份保持在[20-23°C]。采用理论模型对空调柜体的尺寸进行计算,得到所需的温度值。该模型还允许确定空气柜式空调的热性能。
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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