11results about "Three-dimensional effects" patented technology

A polychromatic carving medium (100) and system for layered colour revelation. The medium (100) includes a workpiece having a multi-layered structure composed of a plurality of stacked layers (102), each layer being of a distinct colour and bonded to form a unitary laminated body. Carving through the layers exposes underlying colours corresponding to carving depth, producing a depth-dependent chromatic effect. The layers may be formed from polymeric, vinyl, or composite materials joined by heat-pressure lamination or thermoplastic fusion, and may include stabilising or protective coatings. In another embodiment, the workpiece comprises a polymeric matrix having amorphously distributed colour zones that yield non-repetitive chromatic patterns upon carving. A method of manufacture (300) includes forming coloured sheets, stacking, fusing, cooling, and trimming to produce the layered medium. The invention further provides a kit comprising the carving medium (100), carving tools (402), and design templates for artistic or educational use.

The present invention relates to a card having a mirror function and a manufacturing method therefor. The card having a mirror function comprises: a card body module composed of some or all of sheets constituting a card having a preset size; a mirror module which is the same size as the card body module and has a mirror made of a mirror deposition layer on the surface thereof; and a UV adhesive layer which is made of a UV curable material, and which is disposed between the card body module and the mirror module and then UV cured to attach the card body module and the mirror module to each other. The mirror module is characterized by comprising: a transparent substrate sheet made of a transparent synthetic resin material; and the mirror deposition layer which is configured to have the reflectivity of a mirror by depositing a predetermined metal on one surface of the transparent substrate sheet, wherein the mirror deposition layer of the mirror module is disposed on the front surface of the card body module.

The present invention relates to a layer arrangement, having: a foil layer (100) provided with optical information, and a three-dimensionally structured layer (200) having a smooth side (210) and a structured side (220) opposite the smooth side (210), wherein the structured side (220) has at least one face (230) which is not coplanar with the smooth side (210) and faces a previously defined reference location (400), and the structured side (220) has at least one face (235) which is not coplanar with the smooth side (210) and faces away from the previously defined reference location (400). The three-dimensionally structured layer (200) is formed by a thermoplastic polymer which has an optical haze Ty (D65 / 10°) according to ASTM D1003 of ≥ 10% with a layer thickness of 4 mm. The foil layer (100) provided with optical information is connected to the structured side (220) of the three-dimensionally structured layer (200). The foil layer (100) provided with optical information is printed with at least one part of a two-dimensional projection (500) of the three-dimensionally structured layer (200), and the projection (520) of the at least one face (230) facing the reference location (400) is shown differently on the foil layer (100) provided with optical information than the projection (530) of the at least one face (235) facing away from the reference location (400).

The present invention relates to a metal card having a glass effect. The metal card includes: a rear metal body including a metal sheet; a front mirror body which is laminated on an upper surface of the rear metal body; and a first adhesive layer which attaches the rear metal body and the front mirror body to each other. The front mirror body includes: an upper substrate sheet made of a sheet of a synthetic resin material and having a transparent and glossy surface; a front printed layer configured by printing a predetermined design or pattern on a rear surface of the upper substrate sheet; a pattern layer configured by forming a predetermined pattern on a surface of the front printed layer; a mirror deposition layer configured to produce a mirror effect by depositing a predetermined metal material on a surface of the pattern layer; a second adhesive layer formed by applying a UV curable material to a surface of the mirror deposition layer; and a lower buffer sheet made of a sheet of a synthetic resin material and mounted on a surface of the second adhesive layer. The metal card according to the present invention can improve the reflectance of patterns and designs and increase a three-dimensional effect without concerns such as glass damage, by laminating the front mirror body made of a synthetic resin material on the front surface of the metal body.

The invention discloses a composite decorative plate with internal and external texture patterns and a manufacturing method thereof, a decorative plate comprises a base plate and a decorative layer, the decorative layer comprises a diaphragm layer, an ink layer, an optical layer, an electroplated reflective layer and a 3D external texture layer, and the upper surface of the base plate is compounded with the electroplated reflective layer of the decorative layer to form the decorative plate. The decorative plate is internally and externally provided with texture patterns, obvious three-dimensional touch sense is generated through the 3D outer texture layer on the surface, and finally the three-dimensional effect of the decorative plate in visual sense and touch sense is achieved. Besides, a plurality of layers of patterns are formed by laminating along the depth direction, the patterns are laminated and distributed along different depths, and the patterns of all layers interact with one another, so that the laminated three-dimensional pattern with the depth feeling is finally formed.

Disclosed are a fiber-reinforced plastic decoration member using a double-sided thin film lamination method and a manufacturing method therefor, the fiber-reinforced plastic decoration member preventing fiber mesh marks of fiber-reinforced plastic (FRP) from being visible and enabling various colors and three-dimensional patterns to be expressed without adhesion problems and curling problems between the fiber-reinforced plastic and a printing layer. The fiber-reinforced plastic decoration member using the double-sided thin film lamination method and the manufacturing method therefor according to the present invention not only completely eliminate the curling problem that occurs when forming a decoration member on a single side, but also completely eliminate adhesion problems, which are chronic problems of existing methods.

Decorative component (10) for the interior of a motor vehicle, comprising an at least translucent first layer (12), wherein the first layer (12) has more than one first refractive edge (18), and at least one at least translucent further layer (14; 16) laid flat on a previous layer (12; 14), wherein the further layer (14; 16) has more than one further refractive edge (22, 26), characterized in that at least a part of the refractive edges (18, 22, 26) of successive layers (12, 14;14, 16) are positioned laterally offset from each other to create an optical three-dimensional depth effect, wherein the multiple light refraction edges (18, 22, 26) of the respective layer (12, 14, 16) form a pattern (20, 24, 28) with a linearly closed contour and the patterns (20, 24, 28) of the different layers (12, 14, 16) are positioned flush on one side in the direction of the surface normals of the layers (12, 14, 16).

A thermal transfer sheet includes a substrate and a transfer layer, in which the transfer layer after transfer has a reduced peak height (Spk) of 0.6 μm or more. A method for producing a printed material using a thermal transfer sheet including a particle layer disposed on a substrate and an image-receiving sheet including a thermal protrusion-and / or-recess forming layer and a receiving layer stacked in that order on a second substrate, the receiving layer including an image that has been formed, includes the steps of heating the image-receiving sheet to form a protrusion and / or a recess at the image-receiving sheet, and heating the thermal transfer sheet to transfer the particle layer to at least part of the protrusion of the image-receiving sheet.