首页> 外文会议>European Photovoltaic Solar Energy Conference and Exhibition >APPLICATION OF SEMI-TRANSPARENT PHOTOVOLTAICS IN TRANSPORTATION INFRASTRUCTURE FOR ENERGY SAVINGS AND SOLAR ELECTRICITY PRODUCTION: TOWARDS NOVEL NET-ZERO ENERGY TUNNEL DESIGN
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APPLICATION OF SEMI-TRANSPARENT PHOTOVOLTAICS IN TRANSPORTATION INFRASTRUCTURE FOR ENERGY SAVINGS AND SOLAR ELECTRICITY PRODUCTION: TOWARDS NOVEL NET-ZERO ENERGY TUNNEL DESIGN

机译:半透明光伏应用在节能与太阳能电力生产运输基础设施中的应用:走向新型净零能量隧道设计

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Lighting subsystems consume 50% of the energy needs of a typical tunnel. Day-time lighting levels account for over two-thirds of the total system lighting power; their periodic nature creates daily peaks in the tunnel's energy load profile. This paper studies the integration of semi-transparent photovoltaic (STPV) cells into sunscreen structures installed above tunnel entrances to reduce tunnel lighting requirements and offset their day-time lighting loads using energy generated from PVs. The electrical lighting load of a typical 1 km length road tunnel with and without semitransparent photovoltaics (STPV) sunscreen structures was modelled to establish the potential for energy savings. Using a daylighting and energy modeling plug-in called DIVA, the transparencies and ratios of photovoltaics (PV) to glass of a STPV sunscreen that are in accordance with the luminance reduction code requirements were determined. Reduced lighting requirements over the whole tunnel length, including the threshold, transition and interior lighting zones of the tunnel were considered, resulting in significant energy savings. The annual power production of the sections covered with STPV was then simulated using the PVsyst software. The integration of photovoltaic cells resulted in annual energy production that reduced annual energy use by up to 7% and the potential to reduce electric lighting loads by up to 60% during the day. Results also demonstrated that STPV sunscreens have the potential to meet luminance requirements if supplemented with an intelligent lighting control system.
机译:照明子系统消耗了典型隧道的能量需求的50%。日间照明级别占总系统照明功率的三分之二;他们的周期性在隧道能量负荷概况中创造了每日峰值。本文研究了半透明光伏(STPV)细胞将半透明光伏(STPV)电池集成到安装在上面的隧道入口的防晒结构中,以减少隧道照明要求,并使用PVS产生的能量抵消其日间照明负荷。建模典型1 km长度道路隧道的电气照明负荷,具有和不具有半透明光伏(STPV)防晒结构,以确定节能的潜力。确定使用日光和能源建模插件称为DIVA,光伏(PV)的透明度和比率为符合亮度减少代码要求的STPV防晒剂。考虑了整个隧道长度的照明要求,包括隧道的阈值,过渡和室内照明区域,导致显着的节能。然后使用PVSyst软件模拟STPV覆盖的部分的年电力生产。光伏电池的整合导致年能产量减少了最多7%的年度能源使用,并且在白天减少电气照明负荷最高60%的可能性。结果还证明,如果补充智能照明控制系统,STPV Sunscreens有可能满足亮度要求。

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