Conceptualization of Well-Building with Reference to Air-Filtration with Biomaterials

Ghazaleh Shams, M. Mahdavinejad
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Abstract

Aims: Over the last decade, green building standards and standard-setting organizations have made significant strides towards the market transformation of the building industry, resulting in a rapid expansion of green buildings and environmentally conscious building practices throughout the world. The WELL Building Standard focuses on the people in the building [1]. One of the biggest problems in the world today, that has devastating effects on human health and on global warming, is air pollution. By developing knowledge of biomaterials production, ways can be found to reduce these pollutants. Methods: To write this article, a quasi-experimental research method has been used that examines the production of a biomaterial for air filtration in building skins. This shell, which is inspired by cell plasma membrane, meets WELL standards for the adsorption of air pollutant particles and their conversion into harmless particles, thereby optimizing indoor air quality, as well as helping to reduce air pollutants and improve global warming conditions. The use of peptoids -non-natural mimetics of peptides and proteins and like cell membrane phospholipids- to make this synthetic membrane is recommended in this article. Findings: According to studies, peptoids can have side chains to adsorb air pollutant particles. The structure of peptoids allows them to exhibit certain features of cell plasma membrane, such as self-healing and self-assembly. These synthetic membranes can be fabricated with a structure like a cellular plasma membrane. Conclusion: This research states that the time has come to elevate human health and comfort to the forefront of building practices and reinvent buildings that are not only better for the planet, but also for people [1]. Fabricating synthetic membranes, for buildings, with air filtration capabilities using peptoids, is one way to maintain human health and improve the planet.
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参考生物材料空气过滤造井的概念
目标:在过去的十年中,绿色建筑标准和标准制定组织在建筑行业的市场转型方面取得了重大进展,导致绿色建筑和环保建筑实践在全球范围内迅速扩张。WELL建筑标准关注的是建筑中的人[1]。当今世界最大的问题之一是空气污染,它对人类健康和全球变暖有着毁灭性的影响。通过发展生物材料生产的知识,可以找到减少这些污染物的方法。方法:为了写这篇文章,一种准实验的研究方法已经被用来检查建筑皮肤空气过滤生物材料的生产。这种外壳的灵感来自细胞膜,符合WELL标准,可以吸附空气污染物颗粒并将其转化为无害颗粒,从而优化室内空气质量,并有助于减少空气污染物,改善全球变暖状况。本文推荐使用类肽-非天然的多肽和蛋白质的模拟物以及类似细胞膜磷脂-来制造这种合成膜。研究发现:类肽具有侧链,可以吸附空气污染物颗粒。类肽的结构使其具有细胞膜的某些特性,如自愈和自组装。这些合成膜可以制成类似细胞质膜的结构。结论:这项研究表明,将人类健康和舒适提升到建筑实践的最前沿,重塑不仅对地球更有利,而且对人类更有利的建筑的时代已经到来[1]。利用肽类物质为建筑物制造具有空气过滤能力的合成膜,是维护人类健康和改善地球的一种方法。
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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