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Interface engineering and nanoscale characterization of Zn(S,O) alternative buffer layer for CIGS thin film solar cells

机译:用于CIGS薄膜太阳能电池的Zn(S,O)替代缓冲层的界面工程和纳米级表征

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The buffer layers in Cu(In,Ga)Se solar cells play a crucial role in device performance, although their thickness is only a few tens of nanometers. Moreover, often Zn(S,O) alternative buffer layers have been studied in view of their structure, band alignment, and optical properties, but not much work exists on their nanoscale chemical properties. This work focuses on the chemical characterization of Zn(S,O) using x-ray photoelectron spectroscopy for determination of the Zn(S,O) and Cu(In,Ga)Se depth composition, and atom probe tomography for probing the nano-scale chemical fluctuations at the Zn(S,O)/Cu(In,Ga)Se interface. The Zn(O,S) buffer layer was deposited by RF magnetron sputtering. The aim is to study the nanoscale concentration changes and atomic interdiffusion between CIGS and Zn(S,O) after sputter deposition at room temperature and after post-deposition heat treatment at 200°C.
机译:尽管Cu(In,Ga)Se太阳能电池的缓冲层厚度只有几十纳米,但它们在器件性能中起着至关重要的作用。而且,经常根据其结构,能带排列和光学性质对Zn(S,O)替代缓冲层进行研究,但在其纳米级化学性质方面工作不多。这项工作的重点是使用X射线光电子能谱法测定Zn(S,O)和Cu(In,Ga)Se的深度成分,以及原子探针断层扫描技术(Protocol Probe Tomography)对Zn(S,O)的化学表征。 Zn(S,O)/ Cu(In,Ga)Se界面的化学起伏Zn(O,S)缓冲层通过射频磁控溅射沉积。目的是研究室温下溅射沉积后和200°C沉积后热处理后CIGS与Zn(S,O)之间的纳米级浓度变化和原子相互扩散。

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