Thomas Flynn, Subhash Chandra, Anita Ortega, Sarah McCormack
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引用次数: 0
摘要
发光太阳能聚光器(LSCs)具有集中直接和漫射太阳辐射的能力,在城市环境中作为建筑集成光伏(BIPV)具有令人兴奋的潜力。作为BIPV组件,LSCs通常被想象成半透明的太阳能窗户,可以无缝地集成到建筑物的立面和建筑应用中,作为太阳能收集设备。在这项研究中探索的一个应用是为爱尔兰德里正在进行的社区温室开发的太阳能测地圆顶板。在Revit中建模了一个直径为4V和2米的测地线圆顶,Insight Solar Analysis模型优化了lsc -测地线圆顶,并计算了太阳能潜力。利用光线追踪软件对875 cm 2的三角形LSC面板进行了建模,得到了效率参数。随后,采用发光亚克力6T66波导制作,边缘安装硅太阳能电池,并在室外测试29小时。测量到的功率转换效率为0.60%,而理论功率转换效率为1.49%。在穹顶的最佳位置,LSC面板将产生444.22 Wh,总体而言,一年将产生74.2 kWh。虽然这种发电是必不可少的,但半透明的lsc -测地线圆顶板传输可以在光合有效辐射范围内降低太阳辐射,更适合植物生长和温室效应。
Assessment of large-area luminescent solar concentrators as building-integrated geodesic dome panels
Luminescent solar concentrators (LSCs) ability to concentrate both direct and diffuse solar irradiation exhibits exciting potential as building-integrated photovoltaics (BIPV) in urban environments. As BIPV elements, LSCs are often imagined as semi-transparent solar windows which can be integrated seamlessly into a building's façade and architectural applications as solar harvesting devices. One application explored in this research is a solar geodesic dome panel for an ongoing community greenhouse development in Derry, N-Ireland. A 4V and 2 m diameter geodesic dome were modelled in Revit, and an Insight Solar Analysis model optimised the LSC-geodesic dome and calculated the solar potential. The triangular LSC panel of 875 cm 2 was modelled using raytracing software to obtain efficiency parameters. Subsequently, fabricated using a luminescent acrylic 6T66 waveguide, edge-mounted silicon solar cells and tested outdoors for 29 h. A power conversion efficiency of 0.60% compared to theoretical power conversion efficiency of 1.49% was measured. In the optimum location of the dome, the LSC panel would produce 444.22 Wh and, overall, 74.2 kWh in a year. While this power generation is essential, semi-transparent LSC-geodesic dome panel transmission can downshift solar radiation in the photosynthetically active radiation range, better suited for plant growth and the greenhouse effect.