原子配位缺欠所致表面和纳米固体深层能级迁移
Surfaec and nanosolid core level shift
Identifying the origin for core-level binding-energy shift induced by surface relaxation or nanosolid formation, and quantifying the crystal binding energy in a bulk solid has been a high challenge. Here we show that a recent bond order-length-strength (BOLS) correlation mechanism allows us to unify the effects of surface relaxation and nanosolid formation on the core-level binding-energy shift into the atomic coordination number (CN) imperfection. A new and simple method has been developed that enables us to elucidate the intra-atomic trapping energy (the core-level position of an isolated atom) and the crystal binding strength (core-level bulk shift) to the core electrons at the energy levels of Si and a number of metals by matching the predictions to the measurements.
Identifying the origin for core-level binding-energy shift induced by surface relaxation or nanosolid formation, and quantifying the crystal binding energy in a bulk solid has been a high challenge. Here we show that a recent bond order-length-strength (BOLS) correlation mechanism allows us to unify the effects of surface relaxation and nanosolid formation on the core-level binding-energy shift into the atomic coordination number (CN) imperfection. A new and simple method has been developed that enables us to elucidate the intra-atomic trapping energy (the core-level position of an isolated atom) and the crystal binding strength (core-level bulk shift) to the core electrons at the energy levels of Si and a number of metals by matching the predictions to the measurements.
孙长庆
物理学晶体学
XPS Core level surface nanostructures
XPS Core level surface nanostructures
孙长庆.原子配位缺欠所致表面和纳米固体深层能级迁移[EB/OL].(2005-07-11)[2025-08-02].http://www.paper.edu.cn/releasepaper/content/200507-83.点此复制
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