On the road toward a hot carrier solar cell

P. Taylor, J. Fields, R. Collins
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Abstract

We suggest a new paradigm for solar cells that uses a nanostructured crystalline collector (silicon) in an amorphous absorber matrix (hydrogenated amorphous silicon). Previously amorphous absorbers have received no serious consideration because of their low carrier mobilities. Specifically, we demonstrate that carriers generated in the amorphous region are transported out of this region before losing their energy to heat. This result establishes the possibility of using a wide range of nanostructured amorphous matrices to dramatically increase the efficiencies of solar cells. The use of an amorphous absorber provides a highly desirable and flexible approach to producing low-cost, hot carrier solar cells. Since amorphous materials can be grown over a much wider composition space than crystalline materials, this surprising result greatly broadens the absorbing materials that can be used to dramatically increase the efficiencies of solar cells.
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在通往热载体太阳能电池的道路上
我们提出了一种新的太阳能电池范例,即在非晶吸收基质(氢化非晶硅)中使用纳米结构晶体集热器(硅)。以前无定形吸收剂由于其载流子迁移率低而没有得到认真的考虑。具体来说,我们证明了在无定形区域产生的载流子在失去能量之前被输送出该区域。这一结果建立了使用广泛的纳米结构非晶矩阵来显著提高太阳能电池效率的可能性。非晶吸收剂的使用为生产低成本的热载流子太阳能电池提供了一种非常理想和灵活的方法。由于非晶材料可以生长在比晶体材料更宽的组成空间中,这一令人惊讶的结果大大拓宽了可用于大幅提高太阳能电池效率的吸收材料。
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