Citation: LUO Yun-Qing, QIU Mei, YANG Wei, ZHU Jia, LI Yi, HUANG Xin, ZHANG Yong-Fan. Configuration and Electronic Structure of W3O9 Clusters Supported on Li- and Al-Doped M (001) Surfaces[J]. Acta Physico-Chimica Sinica, 2014, 30(12): 2224-2232. doi: 10.3866/PKU.WHXB201410101
Li和Al掺杂的M (001)表面负载W3O9团簇的构型与电子结构
采用基于第一性原理的分子动力学和量子力学相结合的方法, 对W3O9团簇在经Li 和Al 原子掺杂的M (001)表面的负载构型、稳定性以及体系的电子结构进行了系统研究. 结果表明, 当掺杂发生在表层时, 杂质原子的类型对W3O9团簇的负载构型有显著影响. 对于缺电子的Li 掺杂, 负载后W3O9团簇环状构型并不稳定, 转化为链状结构; 而Al 原子的掺杂则使得M (001)表面电子富余, 此时W3O9团簇存在平躺和垂直两种吸附方式, 二者能量稳定性相近, 其中前者存在同时与三个W原子成键的帽氧结构. 当掺杂发生在次表层时, 两种掺杂体系W3O9的负载构型相似, 团簇仍保持环状结构并倾向于采用垂直方式沉积在表面上. 与Li 掺杂体系相比, 富电子的Al 掺杂可显著增强W3O9与M (001)表面之间的结合能力, 负载后有较多电子从表面转移到团簇中特定的W原子上, 这将对W3O9团簇的催化性能产生显著影响.
English
Configuration and Electronic Structure of W3O9 Clusters Supported on Li- and Al-Doped M (001) Surfaces
The configuration, stability, and electronic structure of W3O9 clusters deposited on Li- and Al-doped M (001) surfaces were investigated using first- principles molecular dynamic simulations combined with quantum mechanical calculations. The results indicated that when the doping was in the top layer of the M (001) surface, the type of dopant had a great influence on the configuration of theW3O9 clusters. In the presence of electron-deficient Li doping, the cyclic conformation of the gas-phase W3O9 clusters was not stable, and it changed to a chain-like structure. While the introduction of the Al dopant made the surface electron-rich, the W3O9 clusters preferred parallel and vertical arrangements, respectively; the stabilities of the two configurations were similar, except that in the former case the one terminal oxygen of the clusters became a capped oxygen via bonding with three W atoms. When the doping was present in the sublayer, the W3O9 clusters still showed a cyclic conformation, and favored a vertical deposition model. In comparison with the Li-doping of the M (001) surface, the Al-doping significantly enhanced the interactions between theW3O9 and the M (001) surface, and more electrons were transferred from the substrate to certain W atoms, which would have significant effects on the catalytic performance of the W3O9 clusters.
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Key words:
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Tungsten oxide cluster
- / Doping
- / M surface
- / Density functional theory
- / Electronic structure
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