Abstract: A silicon-containing compound of solid state including neither a compound capable of dissociating into positive and negative ions nor a liquid electrolyte and a gel electrolyte, and exhibiting a dielectric relaxation phenomenon in the frequency range of 100 Hz to 1 MHz, and preferably a sintered body of silicon-containing compound obtained by sintering at least one of the silicon-containing compounds selected from polysilanes and silicones which are dissolvable to organic solvents.

Abstract: The solid electrolyte, wherein the solid electrolyte is formed by making a thin film containing at least one of a polysilane which is soluble in organic solvent and a silicone compound, to contain a metal salt compound such as LiBF4, wherein the silicone compound is represented by the following general formula (1) 1

Abstract: An electricity accumulating element comprising a pair of electrodes, and a dielectric thin film and a solid electrolyte thin film sandwiched between the electrodes, wherein the dielectric thin film is a metal oxide thin film such as a chromium oxide thin film. The metal oxide thin film preferably has a thickness of 1 to 100 nm, and is preferably a film obtained by subjecting to heat treatment at a temperature of 400 to 800° C. The solid electrolyte thin film is preferably a thin film obtained by firing a silicon-containing compound at a temperature of 200° C. or more.

Abstract: A reflector is disclosed which enables bright image display with a wide angle of view and can be efficiently fabricated by a a simplified process. The reflector includes a resin layer having at its surface microscopic projections and depressions and formed by application of a coating composition containing a binder resin and crosslinked resin particles.

Abstract: A method is disclosed which can form a thin metal film in a cost-effective manner and by a simple process of applying a coating composition. The method involves applying a coating composition containing colloidal particles of noble metal or copper, as obtained by reducing a compound of the noble metal or copper in the presence of a polymeric dispersant, to form a coating film, and heating the coating film so that the colloidal particles present therein are fused together to form a thin metal film.

Abstract: A color filter is made easily and uniformly employing electrodeposition.A specific positive type photosensitive resin layer is formed on a transparent electrode formed on a transparent substrate and, then a step for exposing and developing to obtain a desired pattern and a step for forming a desired colored layer by electrodeposition are repeated without peeling of the resin layer.

Abstract: Disclosed is a simple correction method of defects in color layer, which occur in production of color filter. The method does not have the problems associated with the conventional correction methods. The present invention provides a method for correcting defects in a color filter, comprising:(a) forming an electrodeposited film having certain color by means of electrodeposition method on defect portions of a color filter which comprises a transparent substrate, a transparent electrode formed on at least a portion of the transparent substrate and a color layer having a color pattern formed thereon, wherein the color layer has defect portions that formation of the color layer is incomplete, and(b) curing the electrodeposited film with heat or ultraviolet light.

Abstract: The present invention provides an improved process for producing a multicolor display by which a color filter having neither coloring failure nor size failure is obtained.The present invention provides a process comprising:(I) a photosensitive resin layer formed on an electric conductive layer is exposed to light through a mask having a desired pattern which is placed on the photosensitive resin layer, and developed to bare partially the surface of the electric conductive layer;(II) a colored layer is formed on the bared surface of the electric conductive layer by an electrodepositing process; and(III) the above steps (I) and (II) are repeated desired times and then the remaining photosensitive resin layer is eluted with a removing solution which preferentially or selectively dissolves the photosensitive layer, to bare the remaining surface of the electric conductive layer.

Abstract: The present invention provides a process for producing a multicolor display without a photolithographic process which requires registration. The process comprises forming a transparent electroconductive layer on a transparent substrate, forming a desired colored layer patterned thereon, and subjecting the transparent electroconductive layer exposed between the gap of the patterned colored layers to a metal electroplating (or electrolytic reduction) to form a light-shielding layer.

Abstract: Disclosed is a process for plating a metallic deposit between functional pattern lines on a substrate, comprising (a) forming a cured film containing a catalyst for electroless plating on the substrate, (b) forming functional pattern lines on said cured film, and (c) conducting electroless plating.

Abstract: The present invention provides an improved process for forming a color filter for a color display. The process comprises:(a) forming a transparent electroconductive layer on a substrate,(b) forming a negative type photosensitive resin layer having a desired color by electrodeposition on the transparent electroconductive layer,(c) exposing the photosensitive resin layer to light through a negative mask having a desired pattern followed by developing to form a patterned color layer, and(d) effecting the steps (b) and (c) necessary times to form patterned layers having required colors.

Abstract: A process for preparing a color display comprising the following steps:(a) preparing an uncolored base plate comprising a base plate, an electroconductive layer formed on said base plate and a photosensitive resin layer formed thereon, said photosensitive resin layer being patterned by exposing to light through a mask and developing it to let a portion of the electroconductive layer to be colored appear,(b) forming a color layer by electrodeposition on the portion of the electroconductive layer to be colored,(c) transferring the color layer onto a transfer plate, and(d) further transferring and fixing the color layer onto a transparent substrate from the transfer plate,wherein if the color display is colored with more than one color, the processes (a) to (d) are repeated for the other colors, but once said uncolored base plate is formed, the processes (b) to (d) are repeated.