The surface relaxation and band structure of Mo(112).

Interplay between plasmons and the band structure for the Mo(112) surface

Morphological and electronic properties of ultrathin crystalline silica epilayers on a Mo„112... substrate

Ultrathin crystalline silica layers grown on a Mo~112! substrate have been shown to be a useful silica model oxide support in surface science model catalyst studies. As the oxide support material plays an important role in the catalytic process, a multitechnique surface science study is presented to characterize the morphological and electronic properties of the heteroepitaxial system SiO2 /Mo(...

The electron–phonon coupling at the Mo(112) surface

We investigated the electron–phonon coupling (EPC), in the vicinity of the Fermi level, for the surface-weighted states of Mo(112) from high resolution angle-resolved photoemission data taken parallel to the surface corrugation (i.e. 〈1̄1̄1〉). The surface-weighted bandwidth may be discussed in terms of electron–electron interactions, electron impurity scattering and electron–phonon coupling and e...

بررسی ویژگی‌های ساختاری، الکترونی و اپتیکی ترکیب BSb در حالت سطح (110) و انبوهه با استفاده از مفاهیم اولیه

In recent work the structural, electronic and optical properties of BSb compound in bulk and surface (110) states have been studied. Calculations have been performed using Full-Potential Augmented Plane Wave (FP-LAPW) method by WIEN2k code in Density Functional Theory (DFT) framework. The structural properties of the bulk such as lattice constant, bulk module and elastic constants have been inv...

Structure of thin SiO2 films grown on Mo„112..

Ultra-thin SiO2 films were prepared by evaporating Si onto a Mo~112! surface followed by oxidation and annealing up to 1200 K. The surface structure and film quality were investigated by low-energy electron diffraction ~LEED!, Auger spectroscopy ~AES!, and high-resolution electron energy loss spectroscopy ~HREELS!. A well-ordered, monolayer Mo(112)-c(232)-SiO2 structure was characterized by HRE...