纳米结构全方位势垒对CZGS/CZGSe量子点太阳能电池跨行电位的影响

IF 3 Q2 PHYSICS, CONDENSED MATTER Micro and Nanostructures Pub Date : 2025-04-01 Epub Date: 2025-02-06 DOI:10.1016/j.micrna.2025.208083
Smruti Ranjan Mohanty , Chandrasekar Palanisamy , Sudarsan Sahoo , Soumyaranjan Routray
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引用次数: 0

摘要

量子点(QDs)在太阳能电池中的应用正在兴起,因为它具有环保、便宜和更好的电学和光学特性。基于Kesterite的量子点太阳能电池(QDSC)面临着量子点层宽度和厚度的关键挑战,以提高光吸收和整体效率。利用纳米结构对全垒量子点太阳能电池(AABQD)进行有效的工程设计,可以提高QDSC的整体性能。目标是通过改变QD层(CZGS/CZGSe)的厚度从5 nm到15 nm, QD层(CZGSe)的宽度从50 nm到150 nm来探索QDSC的性能。在每个量子点层之间插入一个5nm的薄势垒层(CZGS),这与电学和光学性能相结合。当量子点被四面的势垒包围时,载流子量子化的行为发生了变化。与普通量子点结构相比,载流子的约束和逃逸更为明显。与传统QDs太阳能电池的效率15.3%和Voc 1.075V相比,AAQBD太阳能电池的效率为18.45%,Voc为1.103v。
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Stride potential of CZGS/CZGSe quantum dot solar cell influence of nano-structured all-around-barriers
The Use of Quantum Dots (QDs) in solar cells are emerging because of their eco-friendly, cheaper and better electrical and optical characteristics. Kesterite based Quantum dot solar cells(QDSC) face critical challenges towards the width and thickness of QDs layer to enhance photo absorption and overall efficiency. An efficient engineering of all around barrier QD solar cell (AABQD) utilizing Nano structures may improve the overall performance in QDSC. The goal is to explore the performance of QDSC by varying QD layer (CZGS/CZGSe) thickness from 5 nm to 15 nm and width of the QDs (CZGSe) varies from 50 nm to 150 nm. A thin barrier layer (CZGS) of 5 nm is inserted between each QD layers that coupled with electrical and optical performance. The behavior of carrier quantization changes when QDs are surrounded by barriers from all sides. The confinement and escape of the carrier are more pronounced compared to normal QD structure. The remarkable efficiency of 18.45% and Voc of 1.103v are obtained in AAQBD Solar cell as compared to efficiency 15.3% and Voc of 1.075V in traditional QDs Solar cell.
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