New nanotechnologies for Energy saving and Resiliency of the Built Environment

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Abstract

The focus of this paper deals with innovative material and construction systems that incorporate nanotechnologies for improving their energy-saving performance. Recent developments in the world of phase change materials, specifically on organic PCMs, such as paraffin and bio-PCM aerogel, are presented; laboratory works are presented together with pilot projects in Toronto, where PCM-based system have been incorporated in high-performing buildings. Then, the paper shows recent advancements in super-insulating materials, specifically focusing on aerogel-enhanced blankets and panels, which have been developed at the BeTOP laboratory of the Ryerson University in Toronto, Ontario. Finally, the paper explores the potentialities of including innovative thermochromic coatings at the urban scale and shows the mutual benefits between buildings and communities that could be obtained through the adoption of previously mentioned nanotechnologies. The goal is to describe a pathway towards more sustainable and resilient communities. Using Toronto as a test case, the paper aims to comprehensively show that nanotechnologies offer a paradigm shift at the different scales of the built environment.
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节能和建筑环境弹性的新纳米技术
本文的重点是创新材料和建筑系统,结合纳米技术,以提高其节能性能。介绍了相变材料的最新进展,特别是有机相变材料,如石蜡和生物相变材料气凝胶;实验室工作与多伦多的试点项目一起展示,在那里,基于pcm的系统已被纳入高性能建筑中。然后,这篇论文展示了超级绝缘材料的最新进展,特别是气凝胶增强的毯子和面板,这些材料是在安大略省多伦多瑞尔森大学的BeTOP实验室开发的。最后,本文探讨了在城市范围内采用创新的热致变色涂料的潜力,并展示了通过采用前面提到的纳米技术可以获得的建筑物和社区之间的互利。目标是描述一条通往更具可持续性和复原力的社区的道路。这篇论文以多伦多为测试案例,旨在全面展示纳米技术在建筑环境的不同尺度上提供了一种范式转变。
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