Analysis of DFT-Based Investigated Nanomaterial for Future Promising Aspects for Storing Hydrogen (A Mini-Review)

IF 0.8 4区 化学 Q4 CHEMISTRY, MULTIDISCIPLINARY
Dheeraj Kumar Pandey, Sudhanshu Pandey, Apoorv Saraswat
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Abstract

Hydrogen is a viable clean energy carrier for the upcoming time frame. Sustainable and renewable energy sources are now essential for tackling the world’s climate issues. In the energy sector, hydrogen storage technology is a crucial frontier, especially as countries throughout the world quicken their shift away from fossil fuels. With its environmental advantages and increased energy security, hydrogen is now a more attractive alternative to traditional fossil fuels thanks to recent developments in nano-based materials. With a focus on recent developments in material science and storage efficiency, this paper provides a thorough review of Density Functional Theory (DFT) studies of functionalized nanomaterials for hydrogen storage in nano-based systems. Our review precisely looks at several changes made to nano-based structures to maximize their capacity to store hydrogen. Numerous DFT-based theoretically investigated nanomaterials have shown amazing potential for effective hydrogen storage and will serve as a basis for experimental confirmation. A thorough review is conducted of the many alterations made to nano-based structures to enhance their hydrogen-storing capabilities. The DFT-based theoretical studies examined in this review should encourage experimental teams to verify the theoretical predictions through experimentation since numerous modified nano-based systems have been demonstrated to be promising options for storing hydrogen.

Abstract Image

基于dft的纳米储氢材料前景分析(综述)
在即将到来的时间框架内,氢是一种可行的清洁能源载体。可持续和可再生能源现在是解决世界气候问题的关键。在能源领域,储氢技术是一个至关重要的前沿,尤其是在世界各国加快从化石燃料转型的背景下。由于其环境优势和能源安全性的提高,由于纳米材料的最新发展,氢现在是传统化石燃料的更有吸引力的替代品。本文从材料科学和储氢效率的最新进展出发,综述了密度泛函理论(DFT)在纳米基储氢系统中用于功能化纳米材料的研究进展。我们的评论精确地观察了纳米结构的几个变化,以最大限度地提高它们储存氢的能力。许多基于dft的纳米材料在理论研究中显示出了惊人的有效储氢潜力,并将作为实验验证的基础。一个彻底的审查进行了许多改变,以纳米为基础的结构,以提高其储氢能力。在这篇综述中,基于dft的理论研究应该鼓励实验团队通过实验来验证理论预测,因为许多改进的纳米系统已经被证明是储存氢的有希望的选择。
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来源期刊
CiteScore
1.40
自引率
22.20%
发文量
252
审稿时长
2-4 weeks
期刊介绍: Russian Journal of General Chemistry is a journal that covers many problems that are of general interest to the whole community of chemists. The journal is the successor to Russia’s first chemical journal, Zhurnal Russkogo Khimicheskogo Obshchestva (Journal of the Russian Chemical Society ) founded in 1869 to cover all aspects of chemistry. Now the journal is focused on the interdisciplinary areas of chemistry (organometallics, organometalloids, organoinorganic complexes, mechanochemistry, nanochemistry, etc.), new achievements and long-term results in the field. The journal publishes reviews, current scientific papers, letters to the editor, and discussion papers.
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