Abstract: The three-dimensional modeling device includes a three-dimensional data acquisition unit that acquires three-dimensional data representing a three-dimensional structure with voxels, a discharge mechanism that discharges a laminated material including a plurality of kinds of dyes, and a control unit that controls the discharge mechanism based on the three-dimensional data so as to model the three-dimensional model. One of the voxels is divided into a plurality of elements in each of intersecting three directions, each of the plurality of the elements is provided with color data corresponding to one of a plurality of colors, and the color data of the element is determined such that all of a plurality of surfaces of the voxel has an approximately identical color.

Abstract: The three-dimensional modeling device includes a three-dimensional data acquisition unit that acquires three-dimensional data representing a three-dimensional structure with voxels, a discharge mechanism that discharges a laminated material including a plurality of kinds of dyes, and a control unit that controls the discharge mechanism based on the three-dimensional data so as to model the three-dimensional model. One of the voxels is divided into a plurality of elements in each of intersecting three directions, each of the plurality of the elements is provided with color data corresponding to one of a plurality of colors, and the color data of the element is determined such that all of a plurality of surfaces of the voxel has an approximately identical color.

Abstract: A molded article has a repeated structure of a first layer and a second layer, wherein the first layer has a resin material that continuously extends in a first direction, the second layer provided above the first layer has a resin material that continuously extends in a second direction intersecting the first direction, and the resin material of the first layer and the resin material of the second layer extend, at their intersection, in a third direction that intersects at least one of the first direction and the second direction.

Abstract: A control section of this three-dimensional shaping apparatus controls a shaping head such that, in a first layer, first resin materials are continuously formed in a first direction and arranged with a gap between the first resin materials in a second direction intersecting the first direction, and resin materials other than the first resin materials are continuously formed in the first direction and arranged in the gap. In a second layer provided above the first layer, the first resin materials are continuously formed in a third direction intersecting the first direction and arranged with a gap between the first resin materials in a fourth direction intersecting the third direction, and the resin materials other than the first resin materials are continuously formed in the third direction and arranged in the gap.

Abstract: A shaped object S is formed on a shaping table 10 which has attachably/detachably mounted thereon a base table 1 having a certain rigidity and a flexible table 2 having flexibility, the flexible table 2 is removed from the base table 1 with the shaped object S still mounted on the flexible table 2, the flexible table 2 is flexed to an opposite side from a fixing surface side of the shaped object S, and the shaped object S is removed from the flexible table 2.

Abstract: A three-dimensional shaping apparatus according to the present invention includes a shaping stage, an ascending/descending unit, a shaping head, a light sensor, and a light source. The shaping stage is configured to carry a shaped object. The ascending/descending unit is movable at least along a vertical direction with respect to the shaping stage. The shaping head is mounted on the ascending/descending unit. The light source is configured to emit light directed toward the light sensor. One of either the light sensor or the light source is mounted movable in accordance with movement of the ascending/descending unit, while the other of either the light sensor or the light source is disposed fixedly relative to the shaping stage.

Abstract: An anisotropically conductive member has an insulating base material, and conductive paths composed of a conductive material which pass in a mutually insulated state through the insulating base material in a thickness direction thereof and which are provided in such a way that a first end of each conductive path is exposed on a first side of the insulating base material and a second end of each conductive path is exposed on a second side of the insulating base material. The conductive paths have a density of at least 2 million paths/mm2 and the insulating base material is a structure composed of an anodized aluminum film having micropores therein.

Abstract: An anisotropically conductive member has an insulating base material, and conductive paths composed of a conductive material which pass in a mutually insulated state through the insulating base material in a thickness direction thereof and which are provided in such a way that a first end of each conductive path is exposed on a first side of the insulating base material and a second end of each conductive path is exposed on a second side of the insulating base material. The conductive paths have a density of at least 2 million paths/mm2 and the insulating base material is a structure composed of an anodized aluminum film having micropores therein.

Abstract: An anisotropically conductive member has an insulating base material, and conductive paths composed of a conductive material which pass in a mutually insulated state through the insulating base material in a thickness direction thereof and which are provided in such a way that a first end of each conductive path is exposed on a first side of the insulating base material and a second end of each conductive path is exposed on a second side of the insulating base material. The conductive paths have a density of at least 2 million paths/mm2 and the insulating base material is a structure composed of an anodized aluminum film having micropores therein.

Abstract: There is disclosed an optical printer for printing a grayscale image on a self-developing type photo film unit based on image data. A printing head of the optical printer is provided with a plurality of light emitting elements arranged in a line along a main scan direction whose lighting time lengths are controlled for each pixel in accordance with a tonal level of that pixel. The printing head is shifted relative to the photo film unit in a sub scan direction perpendicular to the main scan direction, to print the image line by line. During each printing cycle of one line, drive voltage applied to the respective light emitting elements are raised with time from an initial value according a predetermined characteristic curve, to increase luminance of the respective light emitting elements as the lighting time for each pixel elapses.

Abstract: A print is postprocessed by using a thermal transfer type of video printer in which an array of heater elements is heated in response to a video signal representing an image to transfer a dye from a dye sheet onto an image-receiving medium to record the image on the medium. A flat postprocessing sheet is prepared which has a primary surface worked to form a desired postprocessing surface contour thereon. The medium on which the dye is transferred is set in the video printer with the primary surface of the postprocessing sheet being brought into contact with the surface of the medium onto which the dye is transferred. The video printer is enabled to press the set postprocessing sheet together with the medium carried thereon via the dye sheet onto the medium by the heater array. The heater array is heated to a predetermined temperature to achieve a postprocessing on the medium. The predetermined temperature exceeds a softening point of a material of an image-receiving layer of the medium.