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首页> 外文期刊>Progress in photovoltaics >All-solution-processed transparent front contact for monograin layer kesterite solar cells
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All-solution-processed transparent front contact for monograin layer kesterite solar cells

机译:用于单体替氏层keterite太阳能电池的全解决方案加工透明前触点

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摘要

The paper presents a fully solution-processed transparent front contact for kesterite monograin layer solar cells, which is composed of a silver nanowire network above a ZnO-based window bilayer. This window bilayer comprises a layer of ZnO nanoparticles and a second layer of chemical-bath-deposited doped ZnO. The optimized front contact can be processed within minutes and performs equally to a reference front contact with a sputtered (ZnO)-Zn-i/ZnO:Al window bilayer, both on solar cell and module level with sizes up to 20 x 20 cm(2). To achieve this, it was necessary to obtain a compact morphology of the chemical-bath-deposited, doped ZnO film even for very short deposition times. It is found that, firstly, this depends on the homogeneity of the seed layer, which is the prerequisite for thin film growth by chemical bath deposition (CBD) on the substrate. It is shown that the ZnO nanoparticle layer covers the rough monograin substrate in a continuous and unperturbed manner. The second aspect of importance was the dopant type used in the CBD process (Al, Ga, or In). Optimal combination of photovoltaic performance and process speed was obtained for Ga-doped ZnO, yielding compact films for deposition times as low as 1 minute. The solution-processed window layers are susceptible to a light-soaking effect, which impairs the cell performance upon storage in dark conditions. While this effect can be easily overcome in the laboratory, the effect in a real application scenario was investigated under outdoor conditions for a period of 4 weeks.
机译:本文介绍了用于KETERITE单体格层太阳能电池的完全解决的透明前触点,其由基于ZnO的窗口双层上方的银纳米线网络组成。该窗口双层包括一层ZnO纳米颗粒和第二层化学浴沉积的掺杂ZnO。优化的前触头可以在分钟内加工,同样地执行与溅射(ZnO)-Zn-I / ZnO:Al窗双层的参考前接触,也可以在太阳能电池和模块电平上的尺寸高达20×20cm( 2)。为此,即使对于非常短的沉积时间,有必要获得化学浴沉积的掺杂ZnO膜的紧凑形态。结果发现,这取决于种子层的均匀性,这是通过基板上的化学浴沉积(CBD)薄膜生长的先决条件。结果表明,ZnO纳米颗粒层以连续和不受干扰的方式覆盖粗糙的单体底物。重要性的第二方面是CBD方法(Al,Ga或In)中使用的掺杂剂型。获得光伏性能和工艺速度的最佳组合对于Ga掺杂的ZnO,得到紧凑的薄膜,用于沉积时间低至1分钟。溶液处理的窗层易受光浸效应的影响,这在蓄冷在暗条件下损害了电池性能。虽然在实验室中可以容易地克服这种效果,但在户外条件下在4周下进行了实际应用方案的效果。

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