Can Geopolymer Materials Be Optimized for Sustainable Building Envelope Applications? A Preliminary Development and Characterization Study

G. Pignatta, Vincent Wong, P. Koshy, C. Sorrell
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Abstract

The materials used in the construction industry have a fundamental role in the development and achievement of low-carbon structures. This research aims to develop and characterize innovative and affordable renewable materials that can meet these low carbon requirements for building envelopes and internal element applications. These materials are geopolymers, which are being researched for fire-resistance, nuclear storage, and cement-based structural applications. Geopolymers are commonly fabricated from high-volume waste materials (e.g., fly ash and blast furnace slag) that are stored in landfill and tailings ponds and have the capacity to facilitate the transition toward a more sustainable and energy-efficient built environment while contributing to the circular economy in the building sector. Two geopolymers, a reference and a prototype, were fabricated and characterized in-lab for their thermal and optical properties to assess their performance for use as building envelope materials. Preliminary results suggest that the prototype has potential for use in green, lightweight building applications. Further optimization of the geopolymers’ thermal and optical performances will open new opportunities for the use of this material in buildings.
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地聚合物材料能被优化用于可持续建筑围护结构吗?初步开发与表征研究
建筑行业使用的材料在低碳结构的发展和实现中起着根本性的作用。这项研究旨在开发和表征创新和负担得起的可再生材料,这些材料可以满足建筑围护结构和内部元素应用的低碳要求。这些材料是地聚合物,正在研究用于耐火、核储存和水泥基结构应用。地聚合物通常由储存在垃圾填埋场和尾矿池中的大量废物(例如,飞灰和高炉渣)制造,具有促进向更可持续和节能的建筑环境过渡的能力,同时有助于建筑部门的循环经济。两种地聚合物,参考和原型,在实验室中制造和表征了它们的热学和光学特性,以评估它们作为建筑围护材料的性能。初步结果表明,该原型在绿色、轻型建筑应用方面具有潜力。地聚合物的热学和光学性能的进一步优化将为这种材料在建筑中的应用开辟新的机会。
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