RgnBe3B3+: theoretical investigation of Be3B3+ and its rare gas capability


A series of Be3B3+ and its rare gas (Rg) containing complexes RgnBe3B3+ (Rg = He–Rn, n = 1–6) have been predicted theoretically using the B3LYP, MP2, and CCSD(T) methods to explore structures, stability, charge distributions, and nature of bonding. Both Be3B3+ and RgBe3B3+ are the global minima on the potential energy surfaces. In the RgnBe3B3+ complexes, the dissociation energy drops with the increase in number of Rg. Natural bond orbital (NBO) and topological analysis of the electron density (AIM) show that the Rg–Be bonds for Kr–Rn have some covalent character. The Rg–Be bond is stabilized dominantly by the Rg → Be3B3+ σ-donation from the valence p orbital of Rg to the vacant valence LUMO orbital of Rgn-1Be3B3+. Besides, other two π-donations also play important roles in stabilizing the Rg–Be bonds.

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This work was supported by innovation foundation of Chongqing City for postgraduate (No. CYB18096).

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Correspondence to Zhuo Zhe Li or An Yong Li.

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Li, Z.Z., Wen, M. & Li, A.Y. RgnBe3B3+: theoretical investigation of Be3B3+ and its rare gas capability. J Mol Model 25, 349 (2019). https://doi.org/10.1007/s00894-019-4248-4

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  • Bonding
  • Stability
  • Boron
  • EDA
  • NBO