染料敏化太阳能电池(DSSCs)的研究进展

Okoye Ikechukwu Francis, A. Ikenna
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引用次数: 15

摘要

由于人口的增长和能源需求的增加,世界各地的能源消耗每年都在增加。世界能源供应在很大程度上依赖水电、热电等能源供应,这些都是不可再生能源。然而,由于能源消费量的增加,不可再生能源每年都在迅速减少。对另一种丰富的能源资源的探索吸引了许多科学家去开发可再生能源技术,如光伏能源,这是一种将太阳辐射转化为电能的技术。在过去的几年里,不同的光伏器件,如无机、有机和混合太阳能电池,已经使用不同的方法被发明出来,用于不同的应用目的。此外,硅太阳能电池的转换效率高,组件成本高,生产过程复杂,限制了光伏太阳能电池作为电力供应手段的商业化。在所有有机太阳能电池中,染料敏化太阳能电池(DSSCs)是最高效、低成本和易于实现的技术。本文重点阐述了DSSCs的结构、DSSCs的各类材料、DSSCs的工作电极及工作机理、透明导电衬底、纳米晶半导体薄膜电极、光敏剂(染料)、电解质、碳层电极、氧化锌(ZnO)层、二氧化锆(ZrO 2)层、DSSCs的优点及应用。研究和开发DSSCs的效率和挑战,以提高目前的效率。
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Review of Dye-Sensitized Solar Cell (DSSCs) Development
Energy consumption is increasing yearly all over the world due to the increase in population and demand of energy. The world largely depends on a hydroelectric energy supply, thermal electric energy supply which is all non-renewable energy resources. Nevertheless, non-re-newable energy resources are rapidly decreasing per year due to increasing rate of energy consumption. The quest for the discovery of another abundant resource of energy has at-tracted many scientists into development of renewable energy technologies like photovoltaic energy which are the technology that convert solar radiation into electricity. For the past several years, different photovoltaic devices like inorganic, organic, and hybrid solar cells have been invented using different methods for different application purposes. Moreover, high conversion efficiency of silicon solar cells, the high cost of module and complicated production processes involved in the production restricted commercialization of photovoltaic solar cells as a means of electricity supply. Among all organic solar cells, Dye-Sensitized Solar Cells (DSSCs) are the most efficient, low cost and easily implemented technology. This review paper focuses on clarifying the technological meaning of the structure of DSSCs, Various types of DSSCs materials, working electrode and working mechanism of DSSC, transparent and conductive substrate, nanocrystalline semiconductor film electrode, pho-tosensisitizer (dye), electrolyte, carbon layer electrode, zinc oxide (ZnO) layer, zirconium dioxide (ZrO 2 ) layer, benefits of DSSCs and application, the efficiency and challenges for research and development of DSSCs to upgrade the current efficiency.
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