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光伏发电技术
★ 5.0
高性能单片钙钛矿/硅 tandem 太阳能电池中电荷传输层的最新进展
Recent Developments of Charge Transporting Layers for High-Performance Monolithic Perovskite/Silicon Tandem Solar Cells
| 作者 | Jiali Xuan · Tianxiang Shao · Yue Zang · Yang Liu · Wensheng Yan |
| 期刊 | IEEE Journal of Photovoltaics |
| 出版日期 | 2024年11月 |
| 技术分类 | 光伏发电技术 |
| 相关度评分 | ★★★★★ 5.0 / 5.0 |
| 关键词 | 钙钛矿/硅叠层太阳能电池 电荷选择性接触材料 载流子传输层 自组装单分子层 效率提升 |
语言:
中文摘要
高性能、低成本的单片钙钛矿/硅串联太阳能电池(PSTSCs)为光伏产业带来了新的曙光。钙钛矿/硅串联器件的功率转换效率实现了前所未有的快速增长,与此同时,适用于电荷选择性接触的材料也在不断优化。在此,我们对近期关于单片 PSTSCs 的研究进行了综述,重点关注了近年来载流子传输层的发展现状。总结了新型电荷传输材料的潜力和优点,并对各部分进行了简要讨论。通过实验测量性能发现,自组装单分子层展现出最具吸引力的前景。基于这类材料,采用纹理表面及其他策略后,串联太阳能电池的效率已提升至 30%以上。随后,我们着眼于进一步的性能提升,基于最具潜力的电荷传输层提出了进一步优化的建议。广泛的研究带来了许多关于户外性能的创新性实验成果,为未来的研究既带来了机遇,也带来了挑战。
English Abstract
The monolithic perovskite/silicon tandem solar cells (PSTSCs) with high performance and low costs bring a new dawn to the photovoltaic industry. The unprecedented rapid growth of the power conversion efficiency for perovskite/silicon tandem devices has been accompanied by a continuous refinement of suitable materials for charge-selective contacts. Herein, we reviewed the recent studies about the monolithic PSTSCs, emphasizing on the current developments of charge carrier transporting layers over the last years. The potential and merits of new charge transporting materials have been summarized, followed by a short discussion on each part. Self-assembled monolayers present the most evocative prospect by measuring performance experimentally. Based on this kind of materials, the efficiency of tandem solar cells has risen to above 30% with texture surface and other strategies. Then, we focus on the further enhancements to propose the suggestion about further optimization on the basis of most promising charge transporting layers. A great scope of research brings many innovative experimental results about outdoor performance, presenting both opportunities and challenges to future researches.
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SunView 深度解读
该钙钛矿/硅叠层电池技术对阳光电源SG系列光伏逆变器产品线具有重要战略价值。叠层电池效率突破30%将显著提升系统发电量,要求逆变器优化MPPT算法以适配其独特的I-V曲线特性和更高工作电压。电荷传输层的界面钝化技术可借鉴至功率模块的界面优化设计,提升SiC/GaN器件的载流子传输效率。该技术的商业化将推动1500V+系统向更高电压演进,需提前布局2000V拓扑架构。建议跟踪其温度稳定性研究,为iSolarCloud平台开发针对性的衰减预测模型,并在PowerTitan储能系统中预留高效光伏接入能力,抢占下一代高效组件市场先机。