Thermal Load and Carbon Emissions With Double Façade and BioPCM Configurations in Different Climates

Energy Storage Pub Date : 2025-09-12 DOI:10.1002/est2.70261
Merve Kılınç Gilisıralıoğlu, Neslihan Türkmenoğlu Bayraktar
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Abstract

Energy consumption and carbon emissions may be reduced by proper building envelope design. Innovative approaches such as PCM-integrated double-facade systems present an opportunity to increase energy efficiency. However, more scientific data is needed on the performance of these systems in different climate zones and various application scenarios for current local and global energy standards. Therefore, an annual simulation process on ten scenarios with Designbuilder is conducted to analyze the thermal load and carbon emission outputs of five locations with different heating–cooling degree days, varying due to PCMs and insulation layers on double façades. According to the study, the double façade system reduced the total energy load in the office building case in all climates. The double façade system mitigated the total load the most in Istanbul by 17%. BioPCM addition changed the carbon emissions and total loads depending on the building type and the conditions of its application, with or without insulation, in different climates. PCM usage reduced carbon emissions by 0.35% in Antalya while increasing the others. While the highest reduction rate of the total load, with 2.3%, occurred in Erzurum with the insulation and PCM combined case, the same occurred with only the PCM scenario in Antalya, by 1.9%. Accordingly, PCM integration without an insulation layer in hot climates significantly reduces total loads while applying insulation and PCM layers together in cold climates.

不同气候条件下双farade和BioPCM配置的热负荷和碳排放
适当的建筑围护结构设计可减少能源消耗和碳排放。诸如pcm集成双立面系统等创新方法为提高能源效率提供了机会。然而,需要更多的科学数据来了解这些系统在不同气候带和不同应用场景下的性能,以满足当前的地方和全球能源标准。因此,利用Designbuilder进行了10种情景的年度模拟过程,分析了5个地点的热负荷和碳排放输出,这些地点的热负荷和碳排放输出由于双立面上的pcm和保温层的不同而不同。根据研究,双立面系统降低了办公大楼在所有气候条件下的总能量负荷。双farade系统在伊斯坦布尔最大程度上减轻了17%的总负荷。BioPCM的加入改变了碳排放量和总负荷,这取决于建筑类型及其应用条件,在不同的气候条件下,有或没有绝缘。在安塔利亚,PCM的使用减少了0.35%的碳排放,同时增加了其他碳排放。在绝缘和PCM结合的情况下,埃尔祖鲁姆的总负荷减减率最高,为2.3%,而安塔利亚的PCM情况相同,仅为1.9%。因此,在炎热气候下,不加保温层的PCM集成显著降低了总负荷,而在寒冷气候下,将保温层和PCM层一起应用。
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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CiteScore
2.90
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