Recent challenges and scope in tandem cells for unassisted overall water splitting

Himanshi Goel , Riya Nagpal , Kumar Rakesh Ranjan , Vivek Mishra
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Abstract

Hydrogen is an efficient and cleaner source of energy and has potential to meet future energy demands. Hydrogen production by solar-driven unassisted water splitting methodology is a mandatory step to achieve this goal. Several strategic approaches are reported to improve efficiency by modifying the surface layers of the electrodes to enhance surface kinetics while some focused on improving stability of photo-electrodes in highly saline water medium and many have worked upon improving the catalyst reaction in the process of recombination of holes and electrons. Still challenges such as poor efficiency, low stability, small solar to hydrogen ratio, over-potential, rate of evolution and high cost are limiting the construction of PEC water splitting system. Herein, we briefly summarize the recent developments in solar to hydrogen conversion technology utilizing different mechanisms over the period including metal oxide, nitrides, monolithic configuration, photo-catalysts, electro-catalysts, surface modulation layers and low quantum yield.
串联电池在无辅助整体水分解方面的最新挑战和范围
氢是一种高效、清洁的能源,具有满足未来能源需求的潜力。通过太阳能驱动的无辅助水分解方法制氢是实现这一目标的必要步骤。报道了几种通过修饰电极表面层来提高表面动力学的方法,一些方法侧重于提高光电极在高盐水介质中的稳定性,许多方法致力于改善空穴和电子复合过程中的催化剂反应。然而,效率差、稳定性低、光氢比小、电势过强、进化速度快、成本高等问题制约着PEC水分解系统的建设。本文简要总结了近年来利用金属氧化物、氮化物、单片结构、光催化剂、电催化剂、表面调制层和低量子产率等不同机制的太阳能制氢技术的最新进展。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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