Shu-Jen Han, Dharmendar Reddy, et al.
ACS Nano
We present results of detailed studies of the adsorption and thermal and electron-beam-induced dissociation of disilane of Si(100)-(2×1) using ultraviolet photoemission spectroscopy, thermal desorption spectroscopy, and electron-stimulated desorption. We show that at 90 K the disilane adsorbs mainly molecularly on Si(100)-(2×1), but above 200 K it dissociates by breaking the Si-Si bond. The resulting SiH3 surface species decompose above 525 K to give H2 and a monohydridelike Si-H surface layer. The dangling bonds of this surface are saturated, and the surface is unreactive. Above 700 K the Si-H surface layer decomposes into H2 and a reactive (2×1)-reconstructed surface is regenerated on which disilane can again dissociate. We show that an electron beam effectively dissociates disilane on the surface, providing a means to grow hydrogenated amorphous silicon films at low temperatures. © 1988 The American Physical Society.
Shu-Jen Han, Dharmendar Reddy, et al.
ACS Nano
J.V. Harzer, B. Hillebrands, et al.
Journal of Magnetism and Magnetic Materials
Frank R. Libsch, Takatoshi Tsujimura
Active Matrix Liquid Crystal Displays Technology and Applications 1997
Ming L. Yu
Physical Review B