Constraints and Opportunities for Co2-Neutral Photovoltaics: In-Situ Perovskite Solar Cell Manufacturing Enables Reaching the Ultimate Carbon Footprint Limit of the Glass Substrate

L. Wagner, S. Mastroianni, A. Hinsch
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引用次数: 1

Abstract

Photovoltaics (PV) is on the way to become a global key energy technology. As PV is replacing fossil fuel based technology, it contributes to reduce the global CO2-emissions. However, it should be kept in mind that the fabrication of PV modules is connected with CO2 emission. To fulfil the Paris climate goals, the global PV industry needs to grow in such a way that it will have a significant share in global carbon emissions. Research-driven approaches to reduce the carbon footprint of PV have strong impact on this development. We identify the glass substrate and encapsulation as the ultimate lower boundary for carbon footprint for long-term stable grid connected PV technologies. By the in-situ concept for perovskite solar cells we introduce a holistic design approach guided by this lower limit for photovoltaic modules with a low carbon footprint of only 5% of current silicon PV. The feasibility of this idea is demonstrated by the fabrication of an efficient pre-encapsulated perovskite in-situ cell. The device shows record efficiencies of certified, stabilized 9.3 %. This is the highest reported efficiency of such solar cells with lowest carbon footprint.
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二氧化碳中性光伏的限制和机遇:原位钙钛矿太阳能电池制造能够达到玻璃基板的最终碳足迹极限
光伏(PV)正在成为全球关键能源技术。由于光伏发电正在取代基于化石燃料的技术,它有助于减少全球二氧化碳排放。然而,应该记住的是,光伏组件的制造与二氧化碳排放有关。为了实现巴黎气候目标,全球光伏产业需要以在全球碳排放中占有重要份额的方式增长。减少光伏碳足迹的研究驱动方法对这一发展产生了强烈影响。我们将玻璃基板和封装确定为长期稳定并网光伏技术碳足迹的最终下限。通过钙钛矿太阳能电池的原位概念,我们引入了一种整体设计方法,该方法以光伏组件的下限为指导,其碳足迹仅为当前硅光伏的5%。通过制备高效的预封装钙钛矿原位电池,证明了这一想法的可行性。该设备显示出创纪录的效率,稳定在9.3%。这是此类太阳能电池报道的最高效率,碳足迹最低。
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