Abstract:
Provided is an optical member, including: a substrate having an at least partially curved surface; a concave-convex structure at an outermost surface, the concave-convex structure being prepared by hydrothermal treatment of a layer formed by gas-phase deposition of at least one of simple aluminum and a compound containing aluminum on the substrate; and a dielectric layer formed by gas-phase deposition between the substrate and the concave-convex structure.
Abstract:
A solar cell device is formed of an insulating layer provided metal substrate and a photoelectric conversion circuit, which includes a photoelectric conversion layer, an upper electrode, and a lower electrode, formed on the substrate. The substrate is constituted by a metal substrate and a porous Al anodized film. The metal substrate is formed of a base material of a metal having a higher rigidity, a high heat resistance, and a smaller linear thermal expansion coefficient than Al and an Al material integrated by pressure bonding to at least one surface thereof, and the porous Al anodized film is formed on a surface of the Al material.
Abstract:
An anodizing apparatus includes: a power supplying drum for supporting a strip of an anodizable metal or a composite conductive foil having an anodizable metal on one surface thereof in close contact, at least a portion of the power supplying drum supporting the strip being conductive; opposing electrodes facing the power supplying drum; an electrolysis tank filled with an electrolytic solution in which a portion of the power supplying drum that supports the strip and the opposing electrodes are immersed; non conductive protective members that overlap the transverse ends of the strip on the power supplying drum and portions of the power supplying drum that the strip is not in contact with to protect the overlapped portions from the electrolytic solution; and a drive section that causes the strip and the protective members to move together within the electrolytic solution, synchronized with the rotating speed of the power supply drum.
Abstract:
An insulating layer provided metal substrate, including a metal substrate having a metallic aluminum on at least one surface and a composite structure layer formed of a porous aluminum oxide film provided on the metallic aluminum by anodization and an alkali metal silicate film covering pore surfaces of the porous aluminum oxide film, in which the mass ratio of silicon to aluminum in the composite structure layer is 0.001 to 0.2 at an arbitrary position within a region between a position 1 μm to the composite structure layer side in thickness from the interface between the composite structure layer and the metallic aluminum and a position 1 μm to the composite structure layer side in thickness from the interface between the composite structure layer and an upper layer on the opposite side of the metallic aluminum.
Abstract:
A semiconductor device is provided with a porous structure layer formed by silicone resin between a substrate and a semiconductor element. Alternatively, a porous layer having a density of 0.7 g/cm3 or less, formed by a compound obtained by hydrolyzing and condensing at least one type of alkoxysilane selected from a group consisting of monoalkoxysilane, dialkoxysilane, and trialkoxysilane, and tetraalkoxysilane is provided between the substrate and the semiconductor element. As a further alternative, an adhesion layer formed by a compound obtained by hydrolyzing and condensing an alkoxysilane is provided on a resin substrate, and a porous layer having a density of 0.7 g/cm3 or less, formed by a compound obtained by hydrolyzing and condensing an alkoxysilane, is provided on the adhesion layer.
Abstract translation:半导体器件具有由硅树脂在衬底和半导体元件之间形成的多孔结构层。 或者,通过将由单烷氧基硅烷,二烷氧基硅烷和三烷氧基硅烷组成的组中选择的至少一种烷氧基硅烷水解和缩合得到的化合物和四烷氧基硅烷形成的密度为0.7g / cm 3以下的多孔层, 衬底和半导体元件。 作为另外的替代方案,在树脂基板上设置由通过水解和缩合烷氧基硅烷获得的化合物形成的粘附层,并且通过水解和冷凝获得的化合物形成密度为0.7g / cm 3以下的多孔层 在粘合层上设置有烷氧基硅烷。