Toward a highly efficient large surface Perovskite Silicon 4-Terminal tandem module

Emilie Raoult, Thomas Guillemot, Sophie Bernard, Marion Provost, V. Daniau, Armelle Yaiche, N. Schneider, Damien Coutancier, R. Bodeux, S. Collin, J. Rousset, Sébastien Jutteau
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Abstract

This work presents a path to the fabrication of highly efficient, large size 4-Terminal (4T) perovskite silicon tandem. As a first step, our deposition process of perovskite based on spin coating was transferred to slot die coating, enabling large surface areas. Simultaneously, a semitransparent perovskite solar cell was designed to ensure a high optical transmission in the near-infrared (NIR) and we achieved a transmission of 90% at 900 nm, in good agreement with the optical simulation. As a second step, a stack reproducing the perovskite solar cell has been packaged with an n-PERT silicon cell in a box printed in 3D to form a pseudo-tandem with 16 cm2 active area. This device allows to guarantee its durability and to precisely assess the performances of the filtered silicon bottom cell thanks to correct optical alignment. It also minimizes optical losses between both silicon bottom and perovskite top cells. Combining a 16.9% perovskite top cell (active surface of 0.09 cm2) deposited by slot die and a 6.4% filtered silicon bottom cell results in an efficiency of 23.3% for a 4T tandem solar cell. Moreover, a filtered silicon solar with 8.2% efficiency is obtained using a perovskite solar cell stack optimized for NIR. The fabrication of 4T tandem over 16 cm2 active area are currently in progress and will be discussed.
一种高效的大表面钙钛矿硅4端串联模块
本研究为高效、大尺寸4端(4T)钙钛矿硅串联材料的制备提供了一条途径。作为第一步,我们将基于自旋涂层的钙钛矿沉积工艺转移到槽模涂层上,从而实现了更大的表面积。同时,设计了一种半透明的钙钛矿太阳能电池,以确保在近红外(NIR)的高透光率,我们在900 nm处实现了90%的透光率,与光学模拟很好地吻合。第二步,将重现钙钛矿太阳能电池的堆叠与n-PERT硅电池封装在3D打印的盒子中,形成具有16 cm2活性面积的伪串联。由于正确的光学校准,该设备可以保证其耐用性,并精确评估过滤硅底电池的性能。它还最大限度地减少了硅底部和钙钛矿顶部电池之间的光学损耗。将槽型晶片沉积的16.9%钙钛矿顶部电池(活性表面为0.09 cm2)和6.4%过滤硅底部电池相结合,4T串联太阳能电池的效率为23.3%。此外,采用针对近红外优化的钙钛矿太阳能电池堆,获得了效率为8.2%的过滤硅太阳能电池。超过16平方厘米活性面积的4T串联的制造目前正在进行中,并将讨论。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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