高透明度透明的基于窗口的农业光伏

M. Vasiliev, Victor Rosenberg, D. Goodfield, Jamie Lyford, Chengdao Li
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摘要

许多现代玻璃和窗户产品基于新颖的玻璃设计,低发射率薄膜涂层和专有的荧光层间类型最近已经开发出来。当今先进的窗户可以控制诸如热发射率、热增益、颜色和透明度等特性。在新型玻璃产品中,通过PV集成的太阳能收集也具有特色,通过图案半导体薄膜能量转换表面,或通过使用发光聚光器类型的方法来实现更高的透明度。通常,半透明和高度透明的光伏窗是专门设计的,用于建筑行业和农业发电(温室),包括特殊类型的发光材料,衍射微结构,定制的玻璃系统和电路。最近,在建造集成高透明度太阳能窗(具有高达70%的可见光透射率,电功率输出Pmax ~ 30−33 Wp/m2,例如ClearVue PV太阳能窗)方面取得了重大进展;这些预计将为智能城市的发展和温室装置中的先进农业发电增添动力。目前(2023年),这些ClearVue窗户设计是唯一一种视觉上清晰、可部署的建筑材料,能够在建筑中节省大量能源,同时产生大量可再生能源。本研究的目的是将ClearVue®光伏窗系统最近的工业化发展置于发光聚光器领域先前研究的更广泛背景下,并提供一些关于在研究温室的建筑围护结构内部署的几种ClearVue窗设计类型的测量性能特征的细节,并阐明其能量收集行为的相应差异。对这些最近开发的透明农业光伏建筑材料的实际应用潜力进行了评估,重点关注可再生能源发电的测量数据和在长期研究中观察到的季节性趋势。本文报告了2021年初在莫道克大学(澳大利亚珀斯)建造的研究性温室农业光伏装置的实测性能特征。莫道克大学的太阳能温室展示了巨大的商业食品生产潜力,由于其建筑围护结构的现场能源生产,节省了大量能源。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
High-transparency clear window-based agrivoltaics
A number of modern glass and window products based on novel glazing designs, low-emissivity thin-film coatings, and proprietary fluorescent interlayer types have been developed recently. Advanced windows of today can control properties such as thermal emissivity, heat gain, colour, and transparency. In novel glass products, solar energy harvesting through PV integration is also featured, enabled by either patterned-semiconductor thin-film energy conversion surfaces, or by using luminescent concentrator-type approaches to achieve higher transparency. Typically, semitransparent and also highly-transparent PV windows are purpose-designed, for applications in construction industry and agrivoltaics (greenhousing), to include special types of luminescent materials, diffractive microstructures, and customized glazing systems and electric circuitry. Recently, significant progress has been demonstrated in building integrated high-transparency solar windows (featuring visible light transmission of up to 70%, with electric power output Pmax ∼ 30−33 Wp/m2, e.g. ClearVue PV Solar Windows); these are expected to add momentum towards the development of smart cities and advanced agrivoltaics in greenhouse installations. At present (in 2023), these ClearVue window designs are the only type of visually-clear and deployment-ready construction materials capable of providing significant energy savings in buildings, simultaneously with a significant amount of renewable energy generation. The objective of this study is to place the recent industrialised development of ClearVue® PV window systems into a broader context of prior studies in the field of luminescent concentrators, as well as to provide some details on the measured performance characteristics of several ClearVue window design types deployed within the building envelope of a research greenhouse, and to elucidate the corresponding differences in their energy harvesting behaviour. An evaluation of the practical applications potential of these recently developed transparent agrivoltaic construction materials is provided, focussing on the measured renewable energy generation figures and the seasonal trends observed during a long-term study. This article reports on the measured performance characteristics of research greenhouse-based agrivoltaic installation constructed at Murdoch University (Perth, Australia) in early 2021.The solar greenhouse at Murdoch University has demonstrated great potential for commercial food production with significant energy savings due to on-site energy production from its building envelope.
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