材料科学
催化作用
原子轨道
过渡金属
镧系元素
主组元素
金属
纳米技术
双重角色
原子序数
无机化学
化学物理
群(周期表)
化学
离子
组合化学
原子物理学
物理
有机化学
冶金
电子
量子力学
作者
Mingzi Sun,Hon Ho Wong,Tong Wu,Alan William Dougherty,Bolong Huang
标识
DOI:10.1002/aenm.202101404
摘要
Abstract In recent years, investigations into atomic catalysts has accelerated significantly. Although different atomic catalysts have been developed, the introduction of main group elements is rarely considered. In this work, the possibility of introducing alkaline/alkaline earth metals (AAEM), post‐transition metal (Post‐TM), and metalloids to form stable graphdiyne‐based dual atomic catalysts (GDY‐DAC) is revealed. The main group elements not only act as a promising separator to improve the loading of DACs but also activate the alkyl chains to facilitate the electroactivity of GDY‐DAC. Most importantly, the main group elements in the GDY‐DAC do not affect the electroactivity of transition or lanthanide metals and even enable subtle modulations on the electronic structures. The p band center is a significant descriptor to modulate the electroactivity in oxides while their applications in the atomic catalysts are unclear. With the further evaluations of machine learning, it is found that the involvements of s‐orbitals and p‐orbitals perturb the prediction accuracies of both formation energies and p‐band center, especially for the AAEM. This work supplies insights that are expected to aid progress in designing main group elements‐based atomic catalysts, which opens a new avenue in designing advanced electrocatalysts.
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