钽离子、簇及其氧化物对CH4、NH3和N2的活化:从气相离子的研究中可以学到什么

IF 2.3 3区 化学 Q3 CHEMISTRY, PHYSICAL
Flora Siegele, Martin Tschurl, Detlef Schooss, Ueli Heiz
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引用次数: 0

摘要

有害化合物和温室气体的排放控制以及替代、可持续燃料来源的开发是当前研究的主要焦点。解决这一问题的方法在于开发高效的催化材料。在这里,气相模型系统代表了对未来催化系统的反应性质获得基本见解的突出例子。在这项工作中,我们回顾了钽簇及其氧化物在气相中的研究结果,并讨论了与应用系统潜在相关性的见解。我们专注于对未来可持续化学至关重要的反应。详细地说,我们讨论了甲烷的活化,这可能使温室气体转化为化学原料,我们讨论了NH3的活化,它可能作为一种替代能源载体,其不必要的排放需要在未来的应用中得到抑制。最后,我们考虑N2的活化作为第三个反应,因为降低合成氨的高能量需求仍然面临重大挑战。虽然钽可能是一种有趣的催化材料,但所讨论的研究也可以作为研究其他材料的基准。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Activation of CH4, NH3, and N2 by Tantalum Ions, Clusters and Their Oxides: What Can Be Learnt from Studies of Ions in the Gas Phase.

The emission control of harmful compounds and greenhouse gases and the development of alternative, sustainable fuel sources is a major focus in current research. A solution for this problem lies in the development of efficient catalytic materials. Here, gas phase model systems represent prominent examples for obtaining fundamental insights on reaction properties of prospective catalytic systems. In this work, we review results from studies of tantalum clusters and their oxides in the gas phase and discuss insights with a potential relevance for applied systems. We focus on reactions that are essential for sustainable chemistry in the future. In detail, we address the activation of methane, which may enable the transformation of a greenhouse gas to a chemical feedstock, and we discuss the activation of NH3, which may function as an alternative energy carrier whose unwanted emission needs to be curbed in future applications. Finally, we consider the activation of N2 as a third reaction, since reducing the high energy demand of ammonia synthesis still bears significant challenges. While tantalum may be an interesting catalytic material, the discussed studies may also serve as benchmark for investigations of other materials.

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来源期刊
Chemphyschem
Chemphyschem 化学-物理:原子、分子和化学物理
CiteScore
4.60
自引率
3.40%
发文量
425
审稿时长
1.1 months
期刊介绍: ChemPhysChem is one of the leading chemistry/physics interdisciplinary journals (ISI Impact Factor 2018: 3.077) for physical chemistry and chemical physics. It is published on behalf of Chemistry Europe, an association of 16 European chemical societies. ChemPhysChem is an international source for important primary and critical secondary information across the whole field of physical chemistry and chemical physics. It integrates this wide and flourishing field ranging from Solid State and Soft-Matter Research, Electro- and Photochemistry, Femtochemistry and Nanotechnology, Complex Systems, Single-Molecule Research, Clusters and Colloids, Catalysis and Surface Science, Biophysics and Physical Biochemistry, Atmospheric and Environmental Chemistry, and many more topics. ChemPhysChem is peer-reviewed.
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