Abstract: An image forming apparatus records an image on a recording medium including a first layer developing a first color when exceeding a first temperature, a second layer developing a second color when exceeding a second temperature, and a third layer developing a third color when exceeding a third temperature. The image forming apparatus includes a head applying energy to the recording medium from the first layer side and a control device configured to control the energy to be applied to the recording medium by the head so as to form an image of a mixed color of the first color, the second color, and the third color on the recording medium by controlling the head to apply the energy to the recording medium to develop the first color on the recording medium after developing the second color or the third color.

Abstract: A print data editing device is configured to perform: editing print data such that when dots constituting an input image represented by the print data are compared by units of columns before and after the editing, a coincidence is maximized when an image of each column in the input image after the editing is the same position as an image of the corresponding column in the input image before the editing or is shifted by a corresponding shift amount in a sub-scanning direction relative to the image of the corresponding column in the input image before the editing. An absolute value of at least one of shift amounts for columns in the input image after the editing is one dot or greater. An absolute difference value for any two neighboring columns in a main scanning direction in the input image after the editing is one dot or less.

Abstract: A print data editing device includes a controller configured to performs acquiring print data, and converting the print data. The converting includes determining, as a conversion sub-dot, one or more of sub-dots included in a sub-line for each of all sub-lines constituting one line within printing areas in an image represented by the print data, and editing the print data such that the print data indicates OFF for the one or more sub-dots determined as the conversion sub-dot. Each sub-line is constituted by the sub-dots. The sub-dot is a printing unit obtained by dividing a dot into M parts in a sub-scanning direction, where M is an integer of two or greater. The sub-dot for which the print data indicates ON is a printing area. The sub-dot for which the print data indicates OFF is a non-printing area. An area outside a printing region is also the non-printing area.

Abstract: A print data editing device performs editing print data such that when dots constituting an input image represented by the print data are compared by units of columns before and after performing the editing, a coincidence is maximized when an image of each column in the input image after the editing is the same position as an image of the corresponding column in the input image before the editing or is shifted by a corresponding shift amount relative to the image of the corresponding column in the input image before the editing and an editing condition is met. The editing condition includes that an absolute value of at least one shift amount is one dot or greater, an absolute difference value for any two neighboring columns is one dot or less, and at least one absolute difference value for all possible combinations of two columns is less than one dot.

Abstract: A printer includes a thermal head including a plurality of heat generating elements configured to apply energy to a recording medium, and a controller configured to perform control of periodically supplying the power to the plurality of heat generating elements. The recording medium includes a first color developing portion configured to develop a first color and a second color developing portion configured to develop a second color. The controller is configured to periodically supply the power to the plurality of heat generating elements, set an average cycle for supplying the power to a first average cycle, in a case of causing the first color developing portion to develop the first color, and set an average cycle for supplying the power to a second average cycle longer than the first average cycle, in a case of causing the second color developing portion to develop the second color.

Abstract: In a print data editing device, controller is configured to perform: editing; and converting. The editing edits print data representing an input image such that when sub-dots constituting the input image are compared by units of columns before and after performing the editing, a coincidence is maximized when an image of each column in the input image after the editing is the same position as an image of the corresponding column in the input image before the editing or is shifted by a corresponding shift amount in a sub-scanning direction relative to the image of the corresponding column in the input image before the editing. The converting includes: determining one or more sub-dot as a conversion sub-dot; and editing the print data such that the print data indicates OFF for the one or more sub-dots determined as the conversion sub-dot.

Abstract: A print data generating device is configured to generate print data for creating a printed medium by printing a target image on a heat-sensitive medium with a printing device. The printing device includes a thermal head having a heating element. The heat-sensitive medium includes: a base material; and a heat-sensitive layer. The base material has a transparency. The heat-sensitive layer is provided over one surface of the base material and is configured to develop a first color when heated to a first temperature or higher. The printing device is configured to control the heating element according to the print data to heat the heat-sensitive medium. The print data generating device includes a controller. The controller is configured to perform: (a) determining a condition of a background area on which the heat-sensitive medium is to be superimposed; and (b) generating the print data in accordance with the condition determined in (a).

Abstract: A print data editing device is configured to perform: editing print data such that when dots constituting an input image represented by the print data are compared by units of columns before and after the editing, a coincidence is maximized when an image of each column in the input image after the editing is the same position as an image of the corresponding column in the input image before the editing or is shifted by a corresponding shift amount in a sub-scanning direction relative to the image of the corresponding column in the input image before the editing. An absolute value of at least one of shift amounts for columns in the input image after the editing is one dot or greater. An absolute difference value for any two neighboring columns in a main scanning direction in the input image after the editing is one dot or less.

Abstract: In a print data editing device, controller is configured to perform: editing; and converting. The editing edits print data representing an input image such that when sub-dots constituting the input image are compared by units of columns before and after performing the editing, a coincidence is maximized when an image of each column in the input image after the editing is the same position as an image of the corresponding column in the input image before the editing or is shifted by a corresponding shift amount in a sub-scanning direction relative to the image of the corresponding column in the input image before the editing. The converting includes: determining one or more sub-dot as a conversion sub-dot; and editing the print data such that the print data indicates OFF for the one or more sub-dots determined as the conversion sub-dot.

Abstract: A print data editing device performs editing print data such that when dots constituting an input image represented by the print data are compared by units of columns before and after performing the editing, a coincidence is maximized when an image of each column in the input image after the editing is the same position as an image of the corresponding column in the input image before the editing or is shifted by a corresponding shift amount relative to the image of the corresponding column in the input image before the editing and an editing condition is met. The editing condition includes that an absolute value of at least one shift amount is one dot or greater, an absolute difference value for any two neighboring columns is one dot or less, and at least one absolute difference value for all possible combinations of two columns is less than one dot.

Abstract: A print data editing device includes a controller configured to performs acquiring print data, and converting the print data. The converting includes determining, as a conversion sub-dot, one or more of sub-dots included in a sub-line for each of all sub-lines constituting one line within printing areas in an image represented by the print data, and editing the print data such that the print data indicates OFF for the one or more sub-dots determined as the conversion sub-dot. Each sub-line is constituted by the sub-dots. The sub-dot is a printing unit obtained by dividing a dot into M parts in a sub-scanning direction, where M is an integer of two or greater. The sub-dot for which the print data indicates ON is a printing area. The sub-dot for which the print data indicates OFF is a non-printing area. An area outside a printing region is also the non-printing area.

Abstract: An image forming apparatus includes: a thermal head including a plurality of heating elements; and a controller configured to execute a first one-line printing process to perform printing for one line. The first one-line printing process includes: dividing selected R heating elements into M blocks consisting of a 1-st block to an M-th block such that the M blocks include at least one high current block consisting of p heating elements and at least one low current block consisting of q heating elements; and energizing the M blocks at different timings. In a case where the 1-st block is the high current block, at least one block of the M blocks excluding the M-th block is the low current block. In a case where the 1-st block is the low current block, at least one block of the M blocks excluding the M-th block is the high current block.

Abstract: A multilayer ceramic capacitor includes a laminate including ceramic layers and internal electrode layers laminated together in a lamination direction, and at a widthwise end of at least one of the internal electrode layers in a cross section of the laminate perpendicular to the lamination direction, a ratio of a length X to a length Y is about 1.2 or more and about 3.0 or less, where the length X denotes a length of a straight boundary line between the internal electrode layer and the ceramic layer when the shape of the internal electrode layer is considered as a polygon, and the length Y denotes a length of an actual boundary line between the internal electrode layer and the ceramic layer.

Abstract: A print data generating device is configured to generate print data for creating a printed medium by printing a target image on a heat-sensitive medium with a printing device. The printing device includes a thermal head having a heating element. The heat-sensitive medium includes: a base material; and a heat-sensitive layer. The base material has a transparency. The heat-sensitive layer is provided over one surface of the base material and is configured to develop a first color when heated to a first temperature or higher. The printing device is configured to control the heating element according to the print data to heat the heat-sensitive medium. The print data generating device includes a controller. The controller is configured to perform: (a) determining a condition of a background area on which the heat-sensitive medium is to be superimposed; and (b) generating the print data in accordance with the condition determined in (a).

Abstract: A printing device includes: a thermal head; and a processor. The thermal head includes a heating element. The processor is configured to perform: (a) creating; and (b) driving. The (a) creating creates print data based on image data representing an image to be printed on a printing medium. The (b) driving drives the heating element to apply heat to the printing medium according to the print data. The processor is configured to further perform: (c) determining. The (c) determining determines whether to create a plurality of labels for lamination using at least one printing medium including a first printing medium. The first printing medium is transparent and includes a plurality of heat-sensitive layers laminated together. Each of the plurality of heat-sensitive layers is configured to develop a different color when heat is applied from the heating element. The (c) creating is performed in accordance with a determination result in (a).

Abstract: A multilayer ceramic capacitor includes a laminate including ceramic layers and internal electrode layers laminated together in a lamination direction, and at a widthwise end of at least one of the internal electrode layers in a cross section of the laminate perpendicular to the lamination direction, a ratio of a length X to a length Y is about 1.2 or more and about 3.0 or less, where the length X denotes a length of a straight boundary line between the internal electrode layer and the ceramic layer when the shape of the internal electrode layer is considered as a polygon, and the length Y denotes a length of an actual boundary line between the internal electrode layer and the ceramic layer.

Abstract: An image forming apparatus includes a main frame, a plurality of process cartridges, a cartridge-supporting body, a belt, a waste toner cartridge, a contact-separation mechanism, and a collective conveying unit. Each process cartridge includes a photosensitive drum and a drum cleaning unit collecting waste toner on the drum. The cartridge-supporting body is movable between an internal position inside the frame and an external position outside the frame. The belt confronts the process cartridges in the internal position. The waste toner cartridge accommodates the waste toner collected from the drums. The contact-separation mechanism moves the cartridge-supporting body between a contact position where the drums are in contact with the belt and a separated position where the drums are out of contact with the belt. The collective conveying unit aggregates waste toner collected from drums and conveys collectively the aggregated waste toner to the waste toner cartridge.

Abstract: An image forming apparatus has a main body, a belt unit configured to accommodate a belt, a belt cleaning member and an accommodating unit. The belt cleaning unit is configured to remove waste toner adhered on the belt. The accommodating unit is configured to accommodate the toner removed by the belt cleaning unit. The apparatus further includes a drum unit having a drum cleaning member, and a waste toner conveying mechanism configured to convey the waste toner to the collecting unit. The conveying mechanism has a drum-side conveying unit configured to be connected with the drum cleaning member. Communication between the drum-side conveying unit and the collecting unit is enabled in association with movement of the drum unit from the outside position to the inside position, and disabled in association with movement of the drum unit from the inside position to the outside position.

Abstract: An image forming apparatus includes a main frame, a plurality of process cartridges, a cartridge-supporting body, a belt, a waste toner cartridge, a contact-separation mechanism, and a collective conveying unit. Each process cartridge includes a photosensitive drum and a drum cleaning unit collecting waste toner on the drum. The cartridge-supporting body is movable between an internal position inside the frame and an external position outside the frame. The belt confronts the process cartridges in the internal position. The waste toner cartridge accommodates the waste toner collected from the drums. The contact-separation mechanism moves the cartridge-supporting body between a contact position where the drums are in contact with the belt and a separated position where the drums are out of contact with the belt. The collective conveying unit aggregates waste toner collected from drums and conveys collectively the aggregated waste toner to the waste toner cartridge.

Abstract: An image forming apparatus includes a main frame, a plurality of process cartridges, a cartridge-supporting body, a belt, a waste toner cartridge, a contact-separation mechanism, and a collective conveying unit. Each process cartridge includes a photosensitive drum and a drum cleaning unit collecting waste toner on the drum. The cartridge-supporting body is movable between an internal position inside the frame and an external position outside the frame. The belt confronts the process cartridges in the internal position. The waste toner cartridge accommodates the waste toner collected from the drums. The contact-separation mechanism moves the cartridge-supporting body between a contact position where the drums are in contact with the belt and a separated position where the drums are out of contact with the belt. The collective conveying unit aggregates waste toner collected from drums and conveys collectively the aggregated waste toner to the waste toner cartridge.