Hydrogen production via photocatalytic water splitting using spinel ferrite-based photocatalysts: Recent and future perspectives

Yakubu Mohammed , Hafeez Yusuf Hafeez , J. Mohammed , Abdussalam Balarabe Suleiman , Chifu Ebenezer Ndikilar , Miftahu Gambo Idris
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Abstract

The employment of limitless solar energy via semiconductor-facilitated photocatalysis represents a sustainable strategy for addressing the worldwide energy crisis and escalating environmental concerns. Thus, the advancement of effective photocatalysts represents a significant approach in addressing the energy crisis and environmental challenges. Spinel ferrites, with the general formula of MFe2O4 (M is a divalent metal ion such as Mg2+, Mn2+, Zn2+, Ni2+, Co2+, Cu2+, etc.), have attracted considerable research interest. Interesting physicochemical properties such as narrow bandgap, magnetic recyclability, large surface area, excellent photoactivity, non-toxicity, earth-abundance, easy synthesis, stability, and other exciting properties have seen spinel ferrites emerged as suitable candidates for photocatalytic hydrogen fuel generation. For these reasons, this review attempts to provide an overview of the application of spinel ferrites in photocatalytic hydrogen fuel generation. Herein, latest research conducted in the last decade on the use of spinel ferrite as main and co-catalyst in photocatalytic hydrogen production has been reviewed. Attention has been paid to the crystal structure, prospects and shortcomings as photocatalysts, and synthesis methods, including advantages and disadvantages of various synthesis approaches of spinel ferrites. Moreover, the pathways to improve the performance and efficiency of spinel ferrites for effective water splitting are highlighted in this review. Finally, current challenges, future outlook, suggestions and research gaps in the use of spinel ferrites in photocatalytic hydrogen evolution reaction have also been highlighted. The primary objective of this review is to demonstrate that spinel ferrites are regarded as a significant semiconductor photocatalyst due to their efficient absorption of visible light, suitable band alignment, and magnetic recyclability. This review offers a thorough understanding of spinel ferrite-based photocatalysts, encompassing recent research discoveries and progresses. It is envisioned that further investigations should focus on improving photocatalytic performance of spinel ferrites via construction of heterojunction and modifying synthesis processes.

Abstract Image

使用尖晶石铁氧体基光催化剂通过光催化水分离制氢:近期和未来展望
通过半导体促进的光催化技术利用无限的太阳能,是解决全球能源危机和不断升级的环境问题的可持续战略。因此,开发有效的光催化剂是应对能源危机和环境挑战的重要方法。通式为 MFe2O4(M 为二价金属离子,如 Mg2+、Mn2+、Zn2+、Ni2+、Co2+、Cu2+ 等)的尖晶石铁氧体已引起了广泛的研究兴趣。尖晶铁氧体具有窄带隙、磁性可回收性、大表面积、优异的光活性、无毒、富含地球、易合成、稳定等有趣的物理化学特性,是光催化氢燃料生成的合适候选材料。因此,本综述试图概述尖晶铁氧体在光催化氢燃料生成中的应用。在此,综述了过去十年中有关使用尖晶铁氧体作为光催化制氢的主催化剂和助催化剂的最新研究。研究关注了尖晶铁氧体的晶体结构、作为光催化剂的前景和不足、合成方法,包括各种合成方法的优缺点。此外,本综述还强调了提高尖晶石铁氧体有效分水性能和效率的途径。最后,还着重介绍了尖晶铁氧体在光催化氢气进化反应中的应用所面临的挑战、未来展望、建议和研究空白。本综述的主要目的是证明尖晶铁氧体因其对可见光的高效吸收、合适的带排列和磁性可回收性而被视为一种重要的半导体光催化剂。本综述全面介绍了尖晶铁氧体光催化剂,包括最新的研究发现和进展。预计进一步的研究应侧重于通过构建异质结和改进合成工艺来提高尖晶铁氧体的光催化性能。
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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