Design of high performance and low resistive loss graphene solar cells

IF 1.9 4区 物理与天体物理 Q3 OPTICS
Mohammad Sabaeian, Yaser Hajati
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引用次数: 5

Abstract

Despite metallic plasmonic excitations can enhance the performance of ultra-thin solar cells however these so-called plasmonic solar cells suffer from a large resistive (Ohmic) loss caused by metallic elements. In this work, we report on a new design that uses graphene nanoribbons (GNRs) in a two-dimensional (2D) grating form at the top of the semiconductor-on-insulator (SOI) solar cells aimed to reduce the resistive loss. The results showed that GNRs can remarkably reduce the resistive loss compared to the SOI cell with Ag nanograting, while keeping all other cell’s parameters, comparable with those of Ag SOI cell. Optical absorption and short-circuit current density of the graphene cells showed, respectively, enhancements of 18 and 1.7 times when optimizations were done with respect to width and the grating period. Our calculations showed that the graphene solar cells dissipate at most 5% of incident sunlight power as narrow and tiny peaks around 508?nm, which is noticeably lower than those of Ag solar cells with high and broad band peaks with the maximum values of 29% at 480?nm and 24% at 637?nm.

Abstract Image

高性能、低阻损石墨烯太阳能电池的设计
尽管金属等离子体激发可以提高超薄太阳能电池的性能,但这些所谓的等离子体太阳能电池受到金属元素引起的大电阻(欧姆)损耗的影响。在这项工作中,我们报告了一种新的设计,该设计将石墨烯纳米带(gnr)以二维(2D)光栅的形式应用于半导体-绝缘体(SOI)太阳能电池的顶部,旨在减少电阻损耗。结果表明,与含Ag纳米光栅的SOI电池相比,GNRs可以显著降低电池的电阻损耗,同时保持电池的所有其他参数与Ag SOI电池相当。石墨烯电池的光吸收和短路电流密度分别在宽度和光栅周期优化后提高了18倍和1.7倍。我们的计算表明,石墨烯太阳能电池最多消耗5%的入射阳光功率,在508?明显低于银太阳电池的高、宽带峰,在480?637nm和24%。
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来源期刊
CiteScore
2.40
自引率
0.00%
发文量
12
审稿时长
5 weeks
期刊介绍: Rapid progress in optics and photonics has broadened its application enormously into many branches, including information and communication technology, security, sensing, bio- and medical sciences, healthcare and chemistry. Recent achievements in other sciences have allowed continual discovery of new natural mysteries and formulation of challenging goals for optics that require further development of modern concepts and running fundamental research. The Journal of the European Optical Society – Rapid Publications (JEOS:RP) aims to tackle all of the aforementioned points in the form of prompt, scientific, high-quality communications that report on the latest findings. It presents emerging technologies and outlining strategic goals in optics and photonics. The journal covers both fundamental and applied topics, including but not limited to: Classical and quantum optics Light/matter interaction Optical communication Micro- and nanooptics Nonlinear optical phenomena Optical materials Optical metrology Optical spectroscopy Colour research Nano and metamaterials Modern photonics technology Optical engineering, design and instrumentation Optical applications in bio-physics and medicine Interdisciplinary fields using photonics, such as in energy, climate change and cultural heritage The journal aims to provide readers with recent and important achievements in optics/photonics and, as its name suggests, it strives for the shortest possible publication time.
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