Niazy Dalia, Metwally Esraa A, Rifat Mostafa, Awad Mohammed Ibrahim, Elsabbagh Ahmed
Architecture Department, Faculty of Engineering, Ain Shams University, 1 El Sarayat St., Abbasseya, El Weili, Cairo, 11517, Egypt.
Mechatronics Engineering Department, Faculty of Engineering, Ain Shams University, Cairo, Egypt.
Sci Rep. 2023 Nov 23;13(1):20552. doi: 10.1038/s41598-023-47593-9.
Climate change has an impact on the ecosystem, and subsequently, it affects the built environment. Building envelope has a vital role in controlling the integration between indoor and outdoor environmental quality. The responsivity of the façade has proven its efficiency in optimizing the global energy performance of buildings. Adaptive façades are multifunctional reconciling envelope dynamic systems that improve sustainability with the purpose of utilizing environmental parameters. This paper tackles the research gap in integrating façades circularity, adaptive envelopes, and design for disassembly. The research investigates the merge between biodegradability, circularity of adaptive façades components, and interior space micro-climate control for energy efficiency. This paper presents a proof of concept for a circular adaptive façade during two phases in its life cycle: operation and reuse phases. A scientific quantitative method took place which is based on a hybrid method; computational simulation, smart control, and an up-scale model. Adaptability is investigated through the façade life cycle from design to disassembly instead of demolition and consequent waste production, by exploiting sustainable materials. As a result, an empirical prototype is constructed. The prototype provides 3 levels of adaptability across the design, operation, and disassembly for reuse. Subsequently, this work proposes an up-scale physical model that can help in mitigating the climate change effects.
气候变化对生态系统有影响,进而影响建筑环境。建筑围护结构在控制室内外环境质量的整合方面起着至关重要的作用。立面的响应性已证明其在优化建筑整体能源性能方面的有效性。自适应立面是多功能的协调围护结构动态系统,旨在通过利用环境参数来提高可持续性。本文解决了在整合立面循环性、自适应围护结构和可拆卸设计方面的研究空白。该研究调查了生物降解性、自适应立面组件的循环性以及室内空间微气候控制以实现能源效率之间的融合。本文展示了一个圆形自适应立面在其生命周期两个阶段(运行和再利用阶段)的概念验证。采用了一种基于混合方法的科学定量方法,即计算模拟、智能控制和一个放大模型。通过利用可持续材料,从设计到拆卸而不是拆除及随之产生的废物生产,在立面生命周期中研究适应性。结果,构建了一个实证原型。该原型在设计、运行和拆卸以供再利用方面提供了三个层次的适应性。随后,这项工作提出了一个放大的物理模型,有助于减轻气候变化的影响。