Vladimir Fishman, Jan M. L. Martin, A. Daniel Boese
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引用次数: 0
摘要
在最近的一篇论文中[Fishman et al., J. Chem.][j] .理论计算,2025,21,2311-2324],我们引入了另一种非共价相互作用的基准方法,即不以不同二聚体的相互作用能量为基准,而是考虑相互作用能量随系统大小的变化。在这里,我们将基准集扩展到更多的物种,例如静电结合的硼氮二聚体以及平行位移的烯和冠烯二聚体的最小能量结构。虽然平行位移二聚体的最小结构与先前发表的三明治结构二聚体产生相似的结果,但硼氮二聚体的行为却截然不同,产生了更完整的非共价相互作用及其可扩展性。相比之下,多环芳烃结构──冠烯夹夹层和冠烯平行位移──的结果与两种类型的多环芳烃系列的结果一致,从而对冠烯二聚体的能量进行了更新的估计。通过这样做,我们能够打破由最先进的耦合簇方法所做的各种近似。
Intermolecular Interactions of Large Systems: Boron Nitrides, Acenes, and Coronenes
In a recent contribution [Fishman et al., J. Chem. Theory Comput.2025, 21, 2311–2324], we introduced
another approach to benchmarking noncovalent interactions by not benchmarking
interaction energies of different dimers but by considering the evolution
of interaction energies with increasing system size. Here, we extend
the benchmark set to more species, such as electrostatically bound
borazine dimers as well as the minimum-energy structures of parallel
displaced acene and coronene dimers. While the minimum structures
of the parallel displaced acene dimers yield similar results to previously
published sandwich-structured acenes, the borazine dimers behave vastly
differently, yielding a yet more complete picture of noncovalent interactions
and their scalability. In contrast, the polycyclic aromatic hydrocarbon
structures─coronenes sandwich-stacked and coronenes parallel
displaced─give results consistent with those obtained for both
types of the polyacene series, resulting in an updated estimate for
the coronene dimer energy. By doing so, we are able to break down
various approximations made by state-of-the-art coupled-cluster methods.
期刊介绍:
The Journal of Physical Chemistry A is devoted to reporting new and original experimental and theoretical basic research of interest to physical chemists, biophysical chemists, and chemical physicists.