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Alkali-Activated Cements for TES Materials in Buildings’ Envelops Formulated With Glass Cullet Recycling Waste and Microencapsulated Phase Change Materials

机译:用玻璃碎屑回收废料和微囊化相变材料配制的建筑物信封中TES材料的碱活化水泥

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摘要

Within the thermal energy storage field, one of the main challenges of this study is the development of new enhanced heat storage materials to be used in the building sector. The purpose of this study is the development of alkali-activated cements (AACs) with mechanical properties to store high amounts of heat. These AACs incorporate wastes from industrial glass process as well as microencapsulated phase change materials (mPCMs) to improve the thermal inertia of building walls, and accordingly respective energy savings. The research presented below consists of the exhaustive characterization of different AACs formulated from some waste generated during the proper management of municipal waste used as precursor. In this case study, AACs were formulated with the waste generated during the recycling of glass cullet, namely ceramic, stone, and porcelain (CSP), which is embedding a mPCM. The addition of mPCM was used as thermal energy storage (TES) material. The mechanical properties were also evaluated in order to test the feasibility of the use of the new formulated materials as a passive TES system. The results showed that the AAC obtained from CSP (precursors) mixed with mPCMs to obtain a thermal regulator material to be implemented in building walls was reached successfully. The material developed was resistant enough to perform as insulating panels. The formulated materials had high storage capacity depending on the PCM content. The durability of the mPCM shell was studied in contact with alkaline medium (NaOH 4 M) and no degradation was confirmed. Moreover, the higher the content of mPCM, the lower the mechanical properties expected, due to the porosity increments with mPCM incorporation in the formulations.
机译:在热能存储领域中,这项研究的主要挑战之一是开发用于建筑领域的新型增强热能存储材料。这项研究的目的是开发具有机械性能以存储大量热量的碱活化水泥(AAC)。这些AAC吸收了工业玻璃工艺产生的废物以及微囊化的相变材料(mPCM),以改善建筑墙体的热惯性,并相应地节省能源。下面介绍的研究包括对各种AAC的详尽描述,这些AAC是由在适当管理用作前体的市政废物过程中产生的一些废物配制而成的。在本案例研究中,AAC是用玻璃碎玻璃回收过程中产生的废物配制而成的,这些碎玻璃即陶瓷,石材和瓷器(CSP)嵌入了mPCM。 mPCM的添加用作热能存储(TES)材料。还评估了机械性能,以测试将新配制的材料用作被动TES系统的可行性。结果表明,成功实现了从CSP(前体)与mPCM混合获得的AAC,从而获得了将要在建筑墙体中使用的热调节材料。所开发的材料具有足够的抵抗力,可以用作绝缘板。所配制的材料具有较高的储存能力,具体取决于PCM含量。在与碱性介质(NaOH 4 M)接触的情况下研究了mPCM外壳的耐久性,未发现降解。此外,由于在配方中掺入mPCM的孔隙率增加,mPCM的含量越高,预期的机械性能越低。

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