相变材料增强样机在不同气候带下的性能评价

IF 0.7 Q4 ENGINEERING, CIVIL International Journal of Structural Engineering Pub Date : 2023-01-01 DOI:10.1504/ijstructe.2023.134234
Jaspal Singh, R.K. Tomar, N.D. Kaushika, Gopal Nandan
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引用次数: 0

摘要

相变材料(PCM)技术,有效地储存热能,以维持建筑物的内部气氛,是最完善的自适应解决方案之一,以减少建筑物内的空气温度变化。像pcm这样的被动热调节系统提高了热舒适性,减少了建筑采暖、通风和空调的能源。相变材料和储热减少了建筑外部的能源使用。本研究模拟了热带气候,找到了改善热舒适和减少冷却需求的最佳相变材料厚度。研究人员专注于节能建筑的相变材料。本研究比较了在建筑围护结构中使用pcm的好处。使用Energy Plus校准的参考模型对不同气候带的四个印度城市进行了概括。三种厚度的PCM HS-22石膏板- 5,10,20毫米-以及每一种可能的气隙布置- 50和100毫米-被添加到墙壁内部。这种物质的熔点为23°C,使建筑物的温度在高能量需求时接近其熔点。研究发现,在所有气候带中,材料厚度、气隙和能源性能指数之间存在很强的相关性,其中温带地区受益最大。
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Performance evaluation of phase change material enhanced prototype in different climate zones
Phase change material (PCM) technology, which efficiently stores thermal energy to maintain structures' inner atmosphere, is one of the most well established adaptive solutions to reduce air temperature variations in buildings. Passive heat modulation systems like PCMs improve thermal comfort and reduce building heating, ventilation, and air conditioning energy. Phase-change materials and thermal storage reduce energy use in building exteriors. This study modelled a tropical climate and found the optimal phase-change material thickness to improve thermal comfort and reduce cooling needs. Investigators focus on phase change materials for energy-efficient construction. This study compares the benefits of using PCMs in building envelopes. Four Indian cities in different climate zones were generalised using Energy Plus calibrated reference models. Three thicknesses of PCM HS-22 plasterboard - 5, 10, and 20 mm - and every possible air gap arrangement - 50 and 100 mm - were added to the wall's interior. This substance's 23°C melting point keeps a building's temperature close to its melting point during high-energy demand. The study found a strong correlation between material thickness, air gap, and energy performance index in all climate zones, with temperate regions benefiting most.
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来源期刊
International Journal of Structural Engineering
International Journal of Structural Engineering Engineering-Civil and Structural Engineering
CiteScore
2.40
自引率
23.10%
发文量
24
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