Abstract: Provided is a method of forming a semiconductor thin film. The method may include forming, on a substrate, a thin film that contains one of Ge, Si, and a SiGe mixture, and Sn in a content of 0.1 atomic % or more to 20 atomic % or less, and applying pulsed laser light to the thin film.

Abstract: A memory film operable at a low voltage and a method of manufacturing the memory film; the method, comprising the steps of forming a first insulation film (112) on a semiconductor substrate (111) forming a first electrode, forming a first conductor film (113) on the first insulation film (112), forming a second insulation film (112B) on the surface of the first conductor film (113), forming a third insulation film containing conductor particulates (114, 115) on the second insulation film (112B), and forming a second conductor film forming a second electrode on the third insulation film.

Abstract: A given metallic oxide film is epitaxially grown on a substrate. Then, the substrate and the metallic oxide film are thermally treated to mix the constituent elements of the substrate with the constituent metallic oxide elements of the metallic oxide film and to form a metallic oxide film of high dielectric constant on the substrate through the mixing of the constituent elements.

Abstract: A substrate for epitaxial growth includes a silicon-containing substrate, a silicon-germanium film, and a network-shaped structure. The silicon-germanium film is formed lamellarly on the silicon-containing substrate. The network-shaped structure is disposed adjacent to an interface between the silicon-containing substrate and the silicon-germanium film, and is composed of a 90-degree-dislocation dislocation line elongating continuously. The 90-degree-dislocation dislocation line making the network-shaped structure elongates remarkably long without being broken to short lengths interruptedly so that the 90-degree dislocation is disposed cyclically in planes parallel to the interface. Accordingly, the 90-degree dislocation is present uniformly in planes parallel to the interface. Consequently, strains in the crystal lattice of the silicon-germanium film have been uniformly relaxed more securely.

Abstract: A silicon substrate is prepared, and a titanium intermediate layer is formed on the silicon substrate. Then, a compound element-containing layer containing compound elements to compose an intended silicide film is formed on the titanium intermediate layer, to form a multilayered intermediate structure, which is thermally treated to form the intended silicide film made of silicon elements of the silicon substrate and the compound elements of the compound element-containing layer.

Abstract: A silicon oxide layer is formed at a surface region of a silicon substrate. Then, an amorphous silicon layer 13 is formed preferably in a thickness of 1 nm or below on the silicon substrate via the silicon oxide layer. Then, the amorphous silicon layer 13 is exposed to a silane gas preferably with heating the silicon substrate within a temperature range of 400-800° C. to form a high density and minute silicon nanocrystal.

Abstract: A given metallic oxide film is epitaxially grown on a substrate. Then, the substrate and the metallic oxide film are thermally treated to mix the constituent elements of the substrate with the constituent metallic oxide elements of the metallic oxide film and to form a metallic oxide film of high dielectric constant on the substrate through the mixing of the constituent elements.

Abstract: On a given silicon substrate is epitaxially grown a strain-relaxed silicon germanium layer with penetrated dislocations and formed a metallic layer to form a multilayered intermediate structure, which is heated. In this case, metallic elements of the metallic layer are diffused through the penetrated dislocations of the silicon germanium layer to form a thin line structure made of metallic silicide at a boundary face between the silicon base and the silicon germanium layer.

Abstract: On a Si substrate are formed successively a Ge interfacial layer as a dislocation controlling layer and a SiGe film. Then, at least at the region of the SiGe film near the Si substrate are formed 90 degrees dislocations.

Abstract: A memory film operable at a low voltage and a method of manufacturing the memory film; the method, comprising the steps of forming a first insulation film (112) on a semiconductor substrate (111) forming a first electrode, forming a first conductor film (113) on the first insulation film (112), forming a second insulation film (112B) on the surface of the first conductor film (113), forming a third insulation film containing conductor particulates (114, 115) on the second insulation film (112B), and forming a second conductor film forming a second electrode on the third insulation film.