Phase Change Materials Integration in Building Envelopes Under Different Climatic Conditions: State of the Art, Opportunities, and Challenges

Energy Storage Pub Date : 2025-08-11 DOI:10.1002/est2.70250
H. M. Teamah, M. Teamah
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Abstract

Building envelope has a pivotal role in adequate thermal comfort of occupants in the indoor environment. Recent research has been focused on innovative techniques to enhance building performance. Among them, the integration of phase change materials (PCMs) in building envelopes has proven to be promising. Phase change materials have the potential to tune the temperature around their melting point. In addition, the latent heat of phase transition provides high storage capacity compared to plain envelope structures. The current paper provides a comprehensive review on PCM inclusion in building walls, roofs, and floors. It highlights the main governing performance parameters, incorporation methods, modeling techniques, and thermal performance assessment of the systems. Detailed analysis of the results is presented. It includes the effect of PCM inclusion on cooling/heating load reduction, indoor thermal comfort conditions, and energy saving. PCM inclusion was found to reduce building loads by up to 30%. They have also shown a potential of maintaining indoor temperature fluctuation within as low as 2°C. The listed papers cover the recent few decades and span through locations with different climate conditions. The majority of reported work was in Europe and Asia as they are leading in their sustainability goals. In adverse climates like North America, scarce research was reported as the large temperature variation is not favorable for PCM integration. The paper is intended to be a guide for researchers working in the field of PCM integration in building applications. It covers the most recent advances, potentials, and challenges of different integration techniques.

Abstract Image

不同气候条件下建筑围护结构相变材料集成:现状、机遇与挑战
建筑围护结构在室内环境中具有重要的热舒适性。最近的研究主要集中在提高建筑性能的创新技术上。其中,相变材料(PCMs)在建筑围护结构中的集成已被证明是有前途的。相变材料具有在熔点附近调节温度的潜力。此外,相变潜热与普通包络结构相比提供了更高的存储容量。本文对建筑墙体、屋顶和地板中PCM的应用进行了全面的综述。它强调了主要的控制性能参数、合并方法、建模技术和系统的热性能评估。并对结果进行了详细分析。它包括PCM包合物对冷热负荷减少、室内热舒适条件和节能的影响。研究发现,加入PCM可减少高达30%的建筑负荷。它们还显示出将室内温度波动维持在低至2°C的潜力。列出的论文涵盖了最近几十年,并跨越了不同气候条件的地点。报告的大部分工作都在欧洲和亚洲,因为他们在可持续发展目标方面处于领先地位。在北美等气候条件恶劣的地区,由于温度变化大不利于PCM整合,相关研究较少。本文旨在为建筑应用中PCM集成领域的研究人员提供指导。它涵盖了不同集成技术的最新进展、潜力和挑战。
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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