Abstract: A composite material including an alkali metal sulfide, a conductive aid having fine pores and a solid electrolyte, wherein the alkali metal sulfide, the conductive aid and the solid electrolyte are aggregated and the half width of a peak of the alkali metal sulfide measured by X-ray diffraction is 1.0° or more.

Abstract: A printed product and an accompanying method for forming the product wherein a transfer layer of an intermediate transfer recording medium can be transferred by a multi-layer transferring adhesive layer having a suitable adhesive product to either the transfer layer or a transfer-receiving material without the transferred images becoming turbulent.

Abstract: An ethylenic copolymer composition including an ethylenic copolymer having Mw/Mn of 1.5 to 4, Mw of 3,000 to 1,000,000, and a resin density of 0.85 to 0.95 g/cm3. The relationship between the half width at the half maximum [W/2] of the Gaussian distribution curve, and the average, n, of short-chain branches in the copolymer satisfies the equation, 0.704+0.147n=W/2=?0.055+0.577n. The ethylenic copolymer composition also includes an ethylenic copolymer having an Mw of 3,000 to 1,000,000 and a resin density of 0.85 to 0.95 g/cm3.

Abstract: Disclosed is an ethylenic copolymer having Mw/Mn, as measured through GPC, of from 1.5 to 4, Mw of from 3,000 to 1,000,000, and a resin density of from 0.85 and 0.95 g/cm3. The relationship between the half width at the half maximum [W/2] of the curve as obtained through Gaussian distribution approximation relative to the essential peak of the compositional distribution curve of the copolymer obtained through temperature rising elution fractionation analysis, and the average, n, of short-chain branches existing in the copolymer satisfies an equation, 0.704+0.147n ≦W/2≦−0.055+0.577n. Also disclosed is an ethylenic copolymer having Mw/Mn of from 1.5 to 4 and a resin density of from 0.85 and 0.95 g/cm3.

Abstract: There is provided an image receiving sheet which comprises: a substrate sheet, a reflection layer disposed on at least one surface side of the substrate sheet so as to be laid on at least one area thereof, and a receptor layer disposed on at least one surface side of the substrate sheet, wherein the reflection layer has at least one area provided with a convexo-concave pattern, the area provided with the convexo-concave pattern of the reflection layer being extended within an area provided with the receptor layer. The reflection layer is disposed, as required, either on the same surface side of the substrate sheet as the receptor layer is disposed so as to be interposed between the substrate sheet and the receptor layer or on the opposite side of a transparent substrate sheet to the surface provided with the receptor layer. The convexo-concave pattern may comprise an interference fringe, and may be divided into plural areas.

Abstract: A film formed of an ethylenic copolymer having Mw/Mn of 1.5 to 4, Mw of 3,000 to 1,000,000, and a resin density of 0.85 to 0.95 g/cm3. In the copolymer compositional distribution curve, the relationship between the half width at the half maximum [W/2] of the Gaussian distribution curve, and the average, n, of short-chain branches in the copolymer satisfies the equation, 0.704+0.147n≦W/2≦−0.055+0.577n. The tear strength (TS, kgf/cm) of the copolymer satisfies equations, TS≧131.5−155×log[{(B+C+D)/A}+0.1], and 0.1≦(B+C+D)/A≦1 where A is the area surrounding the Gaussian distribution curve and the base line of the compositional distribution curve; B is the area surrounding the compositional distribution curve, the curve obtained through Gaussian distribution approximation, and the base line, B being at an elution temperature higher than 32° C.

Abstract: There is provided a thermal transfer sheet which can impart excellent durability to images formed on bases, and printed objects bearing images with excellent durability. The thermal transfer sheet has a releasable protective laminate prepared by laminating a protective layer composed mainly of solvent-insoluble organic fine particles and a binder resin, and an adhesive layer in that order on at least a portion of one side of a base sheet, and the printed objects are formed by transferring the protective laminate by the thermal transfer sheet so as to cover at least a portion of an image formed on a base by a heat-sensitive sublimation transfer system.

Abstract: An object of the present invention is to provide a method for preparing a printed product in which a transfer layer of an intermediate transfer recording medium can be transfer via a transferring adhesive layer having a suitable adhesive property to either one of the transfer layer and a transfer-receiving material, and thus transferred images do not have turbulence. This objects can be achieved by providing, a method for forming a printed product through that a transfer layer bearing an image is transferred on a transfer-receiving material via a transferring adhesive layer, characterized in that the method comprises following steps. The first step is preparing an intermediate transfer recording medium comprising at least a base film and the transfer, and an adhesive layer transfer sheet comprising at least a substrate sheet and the transferring adhesive layer comprising at least an uppermost layer and a basement layer.

Abstract: An intermediate transfer recording medium is comprised by providing a transfer portion having a receptor layer on a substrate film. The transfer portion is printed with the image and thereafter transferred on a surface of a transfer-receiving material. In the first aspect of the intermediate transfer recording medium, the transfer portion is provided with plural hologram patterns 21 with a hologram mark 22 allocated to each the hologram pattern. According to the first aspect of the invention, since an image is formed on the receptor layer through positioning process using the hologram mark and then the transfer portion is transferred to the surface of the transfer-receiving material, no joint of a print plate appears in the hologram pattern and accuracy of transfer is remarkably excellent.

Abstract: An object of the present invention is to provide a method for preparing a printed product in which a transfer layer of an intermediate transfer recording medium can be transfer via a transferring adhesive layer having a suitable adhesive property to either one of the transfer layer and a transfer-receiving material, and thus transferred images do not have turbulence. This objects can be achieved by providing, a method for forming a printed product through that a transfer layer bearing an image is transferred on a transfer-receiving material via a transferring adhesive layer, characterized in that the method comprises following steps. The first step is preparing an intermediate transfer recording medium comprising at least a base film and the transfer, and an adhesive layer transfer sheet comprising at least a substrate sheet and the transferring adhesive layer comprising at least an uppermost layer and a basement layer.

Abstract: The present invention provides an intermediate transfer recording medium which is used to form an image on a transfer-receiving member and a protective layer on the image to thereby impart durability to the image perfectly and which can simply transfer the protective layer to the image with high accuracy and also provides an image forming method. In the intermediate transfer recording medium (1) of the invention, a sheet substrate (4) provided with a resin layer (5) and a transparent sheet (2) provided with a receptor layer (3) are laminated on each other such that the resin layer (5) is peelable from the transparent sheet (2), wherein a portion of the transparent sheet (2) including the receptor layer (3) is provided with half-cut treatment (6). Using the intermediate transfer recording medium (1), a transfer image is formed on the receptor layer (3) and only the image-formed portion is retransferred to the transfer-receiving member to form an image.

Abstract: The present invention provides an image receiving sheet having a good conveyance property in an electrophotographic copier or printer, having no flaw or dirt and having a superior image quality, characterized in that the image receiving sheet includes an image receiving layer 3 on one surface of a substrate 2 and a backing layer on other surface of the substrate 2 and that the backing layer includes a binder, a component of a silicon containing compound and a particle.

Abstract: The invention is directed to an information-recorded medium with easily selectable and identifiable items of information, which is virtually protected against forgery and has enhanced security against some improper use, and a method for reading such a medium. This information-recorded medium 1 includes a substrate 2 and a layer 3 with information recorded thereon by the printing of infrared absorbing ink, said layer 3 being provided on the surface of the layer 2. The printed layer 3 is provided thereon with a relief hologram-recorded layer 7 through an adhesive layer 4, said hologram-recorded layer 7 being built up of a reflecting layer 5 transparent to the infrared region and a relief hologram-formed layer 6 provided on the surface of the reflecting layer 5. For reading, the hologram-recorded layer 7 is reconstructed by visible light, while the printed layer is reconstructed by infrared light, and the medium 1 is identified on the basis of the thus reconstructed information.

Abstract: There are herein disclosed an olefin copolymer which comprises an olefin unit and a diolefin unit and in which a weight-average molecular weight is in the range of 200 to 800,000, the content of the diolefin unit is in the range of 0.002 to 30 mol%, and a ratio TUS/DOU between the total content of unsaturated groups observed in a molecular chain (TUS mol%) and the content of the diolefin unit (DOU mol%) is in the range of 0.001 to 200; an olefin graft copolymer obtained by the graft polymerization of this olefin copolymer and an olefin; a hydrogenated olefin copolymer and olefin graft copolymer thereof; and a process for preparing these copolymers.These olefin copolymers are excellent in molding/working properties and have a good thermal stability, transparency and uniformity. Therefore, they are useful as a high-performance VLDPE, LDPE, L-LDPE and HDPE, and further useful as a novel branched propylene polymer, a thermoplastic elastomer, a compatibilizing agent for other resins, and the like.