Abstract: An electrode material has a solid concentration of 72% or more. It includes a composite particle, a sulfide solid electrolyte, and a solvent. The composite particle includes an active material and a fluoride solid electrolyte. The fluoride solid electrolyte covers at least part of a surface of the active material. The sulfide solid electrolyte is adhered to the composite particle.

Abstract: A method for generating ejection position data indicating an ejection position where ink is ejected includes performing an edge detection process, an edge correction process, and an ejection position data generation process based on processing target data indicating an image to be printed. In the processing target data, a non-ejection value indicating that ink is not ejected to a corresponding ejection position or an ejection value other than the non-ejection value is set as a pixel value of a pixel. In the edge detection process, a position where a pixel to which the non-ejection value is set and a pixel for which the ejection value is set are adjacent is detected to detect an edge. In the edge correction process, the pixel value of the corresponding pixel is changed to a non-ejection value for at least a part of the ejection position where ink is ejected to draw the edge.

Abstract: A method for generating ejection position data indicating an ejection position where ink is ejected includes performing an edge detection process, an edge correction process, and an ejection position data generation process based on processing target data indicating an image to be printed. In the processing target data, a non-ejection value indicating that ink is not ejected to a corresponding ejection position or an ejection value other than the non-ejection value is set as a pixel value of a pixel. In the edge detection process, a position where a pixel to which the non-ejection value is set and a pixel for which the ejection value is set are adjacent is detected to detect an edge. In the edge correction process, the pixel value of the corresponding pixel is changed to a non-ejection value for at least a part of the ejection position where ink is ejected to draw the edge.

Abstract: In a three-dimensional shaping device, a support layer includes a dissolution removal target region removed by dissolving in the predetermined liquid and formed at a periphery of at least one part of the three-dimensional shaped object, and a non-dissolution removal target region removed through a method other than dissolution by the predetermined liquid and formed at a periphery of at least one part of the dissolution removal target region. At least one part of the support layer other than the dissolution removal target region is a different material region which is a region formed using a material different from the dissolution removal target region, and is formed at a position of at least one part of the periphery of the dissolution removal target region to indicate a position of a boundary between the dissolution removal target region and the non-dissolution removal target region.

Abstract: In this print method, assuming that the number of stacking of ink layers in a thickest portion in a thickly-piled portion is N, in a histogram preparation step ST2, a histogram of luminance values of grayscale image data prepared in an image data preparation step ST1 is prepared, and in luminance value range setting steps ST3 to ST10, a luminance value of predetermined gradations of the histogram is divided into N and N luminance value ranges are set. In the luminance value range setting steps ST3 to ST10, a division position of the luminance value of the predetermined gradations is adjusted while the histogram displayed on a predetermined display is checked.

Abstract: A raised shape is appropriately formed on a medium. A printing device 10 includes inkjet heads 102y to 102k that are a plurality of color ink heads, an inkjet head 102w that is a light reflective ink head, and a controller 30. The controller 30 causes the inkjet heads 102y to 102k and the inkjet head 102w to form a layered ink region and an image region on the medium 50. The layered ink region is a region including a plurality of colored regions (four-color regions) that are colored regions formed by causing at least two inkjet heads among the plurality of inkjet heads 102y to 102k to eject ink, and a plurality of white layers that are light reflecting regions formed on the colored region. The colored regions in the layered ink region are superimposed with at least the white layer interposed therebetween.

Abstract: In this print method, assuming that the number of stacking of ink layers in a thickest portion in a thickly-piled portion is N, in a histogram preparation step ST2, a histogram of luminance values of grayscale image data prepared in an image data preparation step ST1 is prepared, and in luminance value range setting steps ST3 to ST10, a luminance value of predetermined gradations of the histogram is divided into N and N luminance value ranges are set. In the luminance value range setting steps ST3 to ST10, a division position of the luminance value of the predetermined gradations is adjusted while the histogram displayed on a predetermined display is checked.

Abstract: A shaping system that shapes a stereoscopic shaped object, the shaping system including a control PC and a shaping device serving as a shaping executer, where the control PC includes a three-dimensional data inputter that accepts an input of three-dimensional data, which is data indicating at least a stereoscopic shape of the shaped object, and a surface data processor that generates decorated shaped object data, which is data indicating the shaped object on which decoration indicated by decoration data has been applied based on the decoration data which is data indicating decoration to be applied on at least a part of the surface of the shaped object and the three-dimensional data, and the shaping device executes a shaping operation of the shaped object based on the decorated shaped object data to shape the shaped object on which decoration indicated by the decoration data has been applied.

Abstract: In a three-dimensional shaping device, a support layer includes a dissolution removal target region removed by dissolving in the predetermined liquid and formed at a periphery of at least one part of the three-dimensional shaped object, and a non-dissolution removal target region removed through a method other than dissolution by the predetermined liquid and formed at a periphery of at least one part of the dissolution removal target region. At least one part of the support layer other than the dissolution removal target region is a different material region which is a region formed using a material different from the dissolution removal target region, and is formed at a position of at least one part of the periphery of the dissolution removal target region to indicate a position of a boundary between the dissolution removal target region and the non-dissolution removal target region.

Abstract: To appropriately shape a high quality shaped object. A shaping device that shapes a shaped object includes a slice data generating unit that generates a plurality of slice data indicating cross sections of the shaped object; a head unit that ejects a shaping material based on each slice data; and a dither matrix storage unit; where the slice data generating unit determines a position to eject a coloring material in at least one part of the shaped object by performing halftone processing using any one of dither matrices stored in the dither matrix storage unit; and changes the dither matrix to use at a time of generating each slice data in a preset order every time a preset number of the slice data are generated.

Abstract: A three-dimensional object configured by a plurality of divided parts and having a surface, one portion of the surface is covered with a covering member. The three-dimensional object includes a first divided part as the divided part, which at least one portion of the first divided part is exposed from the covering member; and a second divided part as the divided part and is covered with the covering member. In the three-dimensional object, at least one portion of a joining surface of the first divided part and the second divided part is covered with the covering member.

Abstract: To provide a three-dimensional object and a three-dimensional object manufacturing method that can facilitate handling compared to the conventional art even if the object is large. A three-dimensional object includes a frame and parts to be attached to the frame, where the parts each includes a tubular body interiorly formed with a cavity, and at least one part of the frame is arranged in the cavity.