• Chinese Journal of Chemical Physics
  • Vol. 33, Issue 5, 507 (2020)
Li-hui Mou1、2、3, Gui-duo Jiang1、2、3, Zi-yu Li1、3、*, and Sheng-gui He1、2、3、*
Author Affiliations
  • 1State Key Laboratory for Structural Chemistry of Unstable and Stable Species, Institute of Chemistry, Chinese Academy of Sciences, Beijing 100190, China
  • 2University of Chinese Academy of Sciences, Beijing 100049, China
  • 3Beijing National Laboratory for Molecular Sciences and CAS Research/Education Center of Excellence in Molecular Sciences, Beijing 100190, China
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    DOI: 10.1063/1674-0068/cjcp2008141 Cite this Article
    Li-hui Mou, Gui-duo Jiang, Zi-yu Li, Sheng-gui He. Activation of Dinitrogen by Gas-Phase Species[J]. Chinese Journal of Chemical Physics, 2020, 33(5): 507 Copy Citation Text show less

    Abstract

    Reactions of gas-phase species with small molecules are being actively studied to understand the elementary steps and mechanistic details of related condensed-phase processes. Activation of the very inert N$\equiv$N triple bond of dinitrogen molecule by isolated gas-phase species has attracted considerable interest in the past few decades. Apart from molecular adsorption and dissociative adsorption, interesting processes such as C-N coupling and degenerate ligand exchange were discovered. The present review focuses on the recent progress on adsorption, activation, and functionalization of N2 by gas-phase species (particularly metal cluster ions) using mass spectrometry, infrared photo-dissociation spectroscopy, anion photoelectron spectroscopy, and quantum chemical calculations including density functional theory and high-level ab initio calculations. Recent advances including characterization of adsorption products, dependence of clusters' reactivity on their sizes and structures, and mechanisms of N$\equiv$N weakening and splitting have been emphasized and prospects have been discussed.
    $ \begin{eqnarray} && \rm{Ta}_3 \rm{N}_3{^-} + \rm{ N}_2 \rightarrow \rm{Ta}_3 \rm{N}_5{^-} \end{eqnarray} $ (1)

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    $ \begin{eqnarray} && \rm{Ta}_3 \rm{N}_3 \rm{H}^- + \rm{N}_2 \rightarrow \rm{Ta}_3 \rm{N}_5 \rm{H}^- \end{eqnarray} $ (2)

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    $ \begin{eqnarray} \rm{Ta}_2 \rm{C}_4{^-} + \rm{N}_2 \rightarrow \rm{Ta}_2 \rm{C}_4 \rm{N}_2{^-} \end{eqnarray} $ (3)

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    $ \begin{eqnarray} \rm{Ta}_2 \rm{C}_4 \rm{N}_2{^-} + \rm{Xe} &\rightarrow & \rm{Ta}_2 \rm{C}_4{^-} + \rm{N}_2 + \rm{Xe}, \\ && E_ \rm{c}\geq3.3 \quad \rm{eV} \end{eqnarray} $ (4)

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    $ \begin{eqnarray} \rm{Ta}_2 \rm{C}_4 \rm{N}_2{^-} + \rm{Xe}&\rightarrow & \rm{Ta}_2 \rm{C}_3 \rm{N} + \rm{CN}^- + \rm{Xe}, \\ && E_ \rm{c} \geq 4.6 \quad \rm{eV} \end{eqnarray} $ (5)

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    $ \begin{eqnarray} \rm{Ta}_2{^{14}} \rm{N}^+ + ^{15} \rm{N}_2 \rightarrow \rm{Ta}_2{^{15}} \rm{N}^+ + ^{14} \rm{N}^{15} \rm{N} \end{eqnarray} $ (6)

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    $ \begin{eqnarray} \rm{V}_3 \rm{C}_4{^-} + \rm{N}_2 \rightarrow \rm{V}_3 \rm{C}_4 \rm{N}_2{^-} \end{eqnarray} $ (9)

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    $ \begin{eqnarray} \rm{V}_3 \rm{C}_4 \rm{N}_2{^-} + \rm{Xe} &\rightarrow & \rm{V}_2 \rm{C}_4 \rm{N}_2{^-} + \rm{V} + \rm{Xe}, \\ && E_ \rm{c} \geq 3.8 \quad \rm{eV} \end{eqnarray} $ (10)

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    $ \begin{eqnarray} \rm{V}_3 \rm{C}_4 \rm{N}_2{^-} + \rm{Xe} &\rightarrow& \rm{V}_3 \rm{C}_3 \rm{N} + \rm{CN}^- + \rm{Xe}, \\ && E_ \rm{c}\geq 4.8 \quad \rm{eV} \end{eqnarray} $ (11)

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    Li-hui Mou, Gui-duo Jiang, Zi-yu Li, Sheng-gui He. Activation of Dinitrogen by Gas-Phase Species[J]. Chinese Journal of Chemical Physics, 2020, 33(5): 507
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