Recent developments in state-of-the-art hydrogen energy technologies – Review of hydrogen storage materials

Rupali Nagar , Sumita Srivastava , Sterlin Leo Hudson , Sandra L. Amaya , Ashish Tanna , Meenu Sharma , Ramesh Achayalingam , Sanjiv Sonkaria , Varsha Khare , Sesha S. Srinivasan
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引用次数: 13

Abstract

Hydrogen energy has been assessed as a clean and renewable energy source for future energy demand. For harnessing hydrogen energy to its fullest potential, storage is a key parameter. It is well known that important hydrogen storage characteristics are operating pressure-temperature of hydrogen, hydrogen storage capacity, hydrogen absorption-desorption kinetics and heat transfer in the hydride bed. Each application needs specific properties. Every class of hydrogen storage materials has a different set of hydrogenation characteristics. Hence, it is required to understand the properties of all hydrogen storage materials. The present review is focused on the state-of–the–art hydrogen storage materials including metal hydrides, magnesium-based materials, complex hydride systems, carbonaceous materials, metal organic frameworks, perovskites and materials and processes based on artificial intelligence. In each category of materials’ discovery, hydrogen storage mechanism and reaction, crystal structure and recent progress have been discussed in detail. Together with the fundamental synthesis process, latest techniques of material tailoring like nanostructuring, nanoconfinement, catalyzing, alloying and functionalization have also been discussed. Hydrogen energy research has a promising potential to replace fossil fuels from energy uses, especially from automobile sector. In this context, efforts initiated worldwide for clean hydrogen production and its use via fuel cell in vehicles is much awaiting steps towards sustainable energy demand.

最先进的氢能技术的最新发展——储氢材料综述
氢能已被评估为满足未来能源需求的清洁可再生能源。为了最大限度地利用氢能,储存是一个关键参数。众所周知,重要的储氢特性是氢气的操作压力温度、储氢容量、氢气吸收-解吸动力学和氢化物床中的传热。每个应用程序都需要特定的属性。每一类储氢材料都具有不同的加氢特性。因此,需要了解所有储氢材料的特性。本综述的重点是最先进的储氢材料,包括金属氢化物、镁基材料、复杂氢化物系统、碳质材料、金属有机框架、钙钛矿以及基于人工智能的材料和工艺。在每一类材料的发现中,都详细讨论了储氢机理和反应、晶体结构和最新进展。结合基本的合成工艺,还讨论了最新的材料剪裁技术,如纳米结构、纳米约束、催化、合金化和功能化。氢能研究有可能取代能源使用中的化石燃料,尤其是汽车行业的化石燃料。在这种情况下,全世界为清洁氢气生产及其通过燃料电池在汽车中的使用所做的努力,正等待着实现可持续能源需求的步骤。
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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