A flatbed cutter assembly includes a medium support table for supporting a recording medium, the table extending in a first direction and a second direction, the first direction being perpendicular to the second direction, a gantry arranged to be moveable over the medium support table in the first direction, a carriage support movably arranged on the gantry to move over the medium support table in the second direction, a cutter configured to be coupled to the carriage support and a controller for controlling the movements of the gantry, the carriage support and the cutter while moving over the medium support table. The controller is configured to cut through the recording medium from the front side to the back side along a cut path except for a plurality of bridges along the cut path, the recording medium intended to be printed on both front and back side of the recording medium, wherein parts of each bridge which are intended to be adjacent to printed images on the front and back side of the recording medium, are removed by the cutter.

A corrugated paperboard sheet manufacturing apparatus (1) comprises a single facer (8) for preparing a single-faced corrugated paperboard sheet (6), a double facer (12) for preparing a double-faced corrugated paperboard sheet (12), a slitter-scorer (17) for performing a scoring and a slitting of the double-faced corrugated paperboard sheet (10), a cutter (20) for cutting the double-faced corrugated paperboard sheet (10) after the scoring and slitting, and a printer (18) for printing individual identification information on the double-faced corrugated paperboard sheet, in a non-contact state. The printer (18) is disposed on a conveyance line of the corrugated paperboard sheet manufacturing apparatus (1) at a position on a downstream side of the double facer (12).

A sheet conveying apparatus includes a conveying roller, a pinch roller, a holding member, and a pressing device. The pinch roller includes a roller shaft and a roller body rotatable relative to the roller shaft. The roller shaft includes a first end portion and a second end portion. The holding member holds the roller shaft movably in a first direction. The pressing device presses the roller shaft in a pressing direction such that the roller body is pressed against a peripheral surface of the conveying roller. The first end portion of the roller shaft has a first contact surface being a planar surface. The second end portion of the roller shaft has a second contact surface being a planar surface. The roller shaft is disposed such that the first contact surface and the second contact surface are oriented in the pressing direction.

An image forming method of the present invention is an image forming method of forming a halftone image on a corrugated fibreboard recording medium using an inkjet recording device that uses magenta ink and other inks with two or more colors other than the magenta ink, and is an efficient method that does not generate a mottle in an image printed in multicolor on a corrugated fibreboard recording medium using an inkjet recording device by determining a droplet ejection position of the magenta ink and then determining droplet ejection positions of the other inks with two or more colors to be positions different from the droplet ejection position of the magenta ink.

A device is provided for personalizing documents, which includes a personalization device for applying personalization information to a document to be personalized. In addition, the device has a conveying device which includes at least two movable document carrier devices, each of which is configured: to receive a document to be personalized at a transfer position of the device that is the same for all document carrier devices; to move the document received, into the operating region of the personalization device, for the purpose of being personalized; and to move the document received, after its personalization, back to the transfer position and to discharge it there. The conveying device is configured, during its operation, to convey each of the document carrier devices along a respective associated path curve in the shape of a closed loop between the transfer position, the operating region and, in turn, the transfer position.

An inkjet printing method on a rectangular cardboard having a width between a first side and a second side, parallel to each other, comprising: applying a first strap (400) and a second strap (400), parallel to each other and with a space between each other, on a vacuum belt (500) which has a rough support area having a surface roughness (Ra) from 8.0 m to 3500.0 mapplying the cardboard (300) on the vacuum belt (500) wherein said cardboard (300) overlaps partially the applied first strap (400) at the first side of said cardboard (300)and overlaps partially the applied second strap (400) at the second side of said cardboard (300) and wherein between said first side and second side the cardboard is in contact with the vacuum belt (500); applying vacuum power at said rough support area for attaching said strap (400) and said cardboard (300); transporting said attached straps (400) and attached cardboard (300) during inkjet printing an image on said attached cardboard (300).

A suction box, intended for a system for transporting flat media (4) includes at least one endless belt (6), formed with a plurality of through-holes, in a media-printing machine (1), equipped with at least one printing unit (2). The suction box has a face (16) past which the belt (6) passes. A suction device (17) generates a vacuum in the suction box. The face (16) of the suction box is formed with at least one zone at a first suction pressure (22, 23, 24), which is in communication with the suction device (17), so as to apply the vacuum through the holes in the belt (6) to the media being transported by the belt (6), and the face of the suction box has at least one zone at a second pressure (26, 27). The zone at a second pressure is situated in the region of the printing unit (2). The magnitude of the second pressure is greater than the magnitude of the first pressure.

A suction box, intended for a system for transporting flat media (4) includes at least one endless belt (6), formed with a plurality of through-holes, in a media-printing machine (1), equipped with at least one printing unit (2). The suction box has a face (16) past which the belt (6) passes. A suction device (17) generates a vacuum in the suction box. The face (16) of the suction box is formed with at least one zone at a first suction pressure (22, 23, 24), which is in communication with the suction device (17), so as to apply the vacuum through the holes in the belt (6) to the media being transported by the belt (6), and the face of the suction box has at least one zone at a second pressure (26, 27). The zone at a second pressure is situated in the region of the printing unit (2). The magnitude of the second pressure is greater than the magnitude of the first pressure.

A printer for printing plate-like media, in particular for printing marker cards with markers for marking electrical appliances includes a housing and at least one input station for the marker cards to be printed The printer further includes a printing station with a printing device and an output station for printed marker cards. The output station has a magazining device which has one or more guide devices so that the output station, with the magazining device, can be drawn from a position pushed into the housing into a position outside the housing and can be pushed back into the housing of the printer, Each guide device also has its own stacking unit which is pivotably mounted.

When printing is performed on a medium, a computer of a printing apparatus acquires a space (a PLG level number and a thickness of the medium) between a surface of the medium and a print head, which is formed when an ink is discharged onto a medium from the print head in a printing unit. A high speed/low speed of a carriage speed (print speed mode), print color (monochrome/color), and a transport region (normal region/lower end region) as a transport position of the medium are determined. A calculation expression is selected according to the carriage speed, the print color, and the transport region, and a correction amount according to a gap length is calculated using the selected calculation expression. Also, the transport distance is corrected using the correction amount. Transport control is performed by the transport distance.