The invention describes a system (1) for overprinting on formats, comprising at least one printing unit (2), having first actuation means (14), and also comprising format supplying means (6, 7), format collecting means (9), at least one conveyor belt (5), second actuation means (10), and control means (11, 12, 13). The at least one printing unit (2) comprises at least one rotatable printing cylinder (3), having printing zones at the surface, and also first actuation means (14), configured to drive, in a controllable manner, the rotation of the printing cylinder (3). The format supplying means (6, 7) are configured to supply the system with one or more formats (4), each being intended to be overprinted in preset zones to be overprinted. The format collecting means (9) are configured to collect the one or more formats (8) once printed. The at least one conveyor belt (5) is configured to arrange, for the aforementioned one or more formats (4), an advancement path comprised between the format supplying means (6, 7) and the format collecting means (9). The advancement path passes through the printing unit (2). The second actuation means (10) are configured to drive, in a controllable manner, the advancement of the conveyor belt (4) along the advancement path, upstream of the printing unit (2) in the advancement direction. The control means (11, 12, 13) are configured to control, in a coordinated manner, both the first actuation means (14) and the second actuation means (10), so as to determine at each moment a correspondence of the preset zones to be overprinted of the format (4) with respective printing zones of the printing cylinder (3).

A method for mounting one or more printing plate segments on a carrier sheet. The method comprises importing a file into a computer associated with a mounting unit. For each printing plate segment, the file includes a printing plate segment identifier, information regarding alignment of registration marks relative to the carrier sheet; and image data corresponding to a characteristic pattern associated with each printing plate segment. A composite image depicting the image data corresponding to the characteristic patterns is then displayed on a display in the predetermined arrangement of one or more printing plate segment locations and orientations. A mounting unit and a printing system and computer readable media programmed with instructions for performing the method are also described.

An apparatus, a printing press and method for correcting the printing position of a printing unit of a printing press that has at least one sensor unit, where the method includes the steps of detecting an actual position of at least one print mark via the sensor unit, where the print mark is printed onto a printing material via the printing unit, determining of a deviation of the detected actual position from a setpoint position, determining at least one difference value that characterizes the deviation, determining a buffer value from a number of basic values previously stored in a memory, determining a correction value by subtracting the buffer value from the difference value, storing the determined correction value in the memory as one of the basic values, and correcting the printing position based on the determined correction value.

Printing machine, for printing a laminar web, comprising a feeding unit (10) defining a printing area (A); an inkjet printing station (20) comprising a plurality of inkjet printing modules (21) slidably arranged along a transverse guide (22); a positioning device (30) adapted to precisely slide the inkjet printing modules (21) along the transverse guide (22); wherein each inkjet printing module (21) includes a first coupling (31) and is independent from other inkjet printing modules (21) allowing an independent movement of each inkjet printing module (21) along the transverse guide (22); and the positioning device (30) includes a second coupling (32) complementary to each first coupling (31), the second coupling (32) being releasably engageable to each first coupling (31) in an automatic manner, the positioning device (30) being configured to precisely slide each inkjet printing module (21) engaged thereto, along the transverse guide (22).

Screen printer 10 is for screen printing solder paste 13 loaded on an upper surface of stencil 12 onto board S using one of first and second squeegees 71 and 72. Screen printer 10 is provided with a stencil frame holding rail that holds stencil frame 12a of stencil 12, pair of board holding members 36 and 38 that hold board S, raising and lowering table 16 that raises and lowers board holding members 36 and 38, and pair of stencil supporting members 50 and 52 that support stencil 12 from below at a portion outside a printing region of stencil 12 used for screen printing. Stencil supporting members 50 and 52 are provided independently from raising and lowering table 16. Therefore, the load applied to raising and lowering table 16 is reduced. Also, there is increased design freedom with respect to members and the like loaded on raising and lowering table 16.

In a mask printing machine, a target through hole, which is at least one of multiple through holes formed on the mask, is imaged by an imaging device when the board is below the mask and is at a separated position that is separated from the mask, and when the board is at a contact position in which an upper surface of the board contacts a lower surface of the mask, respectively. Based on a captured image, when the board is at the separated position, and a captured image when the board is at the contact position, it is possible to acquire the movement state of at least one target through hole when the board is lifted from the separated position to the contact position.

A printing assembly may include a first continuous cylinder and a first jogging assembly. The first continuous cylinder may be configured to apply print media to a flexible substrate responsive to contact with the flexible substrate. The first continuous cylinder may include a plurality of partitions configured such that only one of the partitions is aligned for contact with the flexible substrate at any given time, and each of the partitions may have a unique print characteristic associated therewith. The first jogging assembly may be operably coupled with the first continuous cylinder to move the first continuous cylinder along an axis thereof to change alignment of the partitions relative to the flexible substrate.

A method for printing on an article can include positioning an article in a print bed of a printing device. The fiducial is disposed in the print bed. The method can also include generating an image of the article and the fiducial, locating the fiducial in the image, using the fiducial to establish a point of reference relative to a print location on the article, providing a raster or vector graphic file comprising a graphic, printing a representation of the graphic on the article at the print location, and removing the article from the print bed.

A printed object management apparatus (10) is provided with: a line sensor (11); a spectrophotometer (12); an area camera (13); a print quality-inspecting unit (10A) for inspecting the quality of the overall pattern of a printed object (9) on the basis of data input from the line sensor (11); a print density controlling unit (10B) for controlling, on the basis of data input from the spectrophotometer (12), the amount of ink supplied so that the ink density equals the reference density; and an inter-color registering unit (10C) for detecting register marks printed on the printed object (9) on the basis of data input from the area camera (13) and aligning the patterns between the various colors. The apparatus is configured so as to support the line sensor (11), the spectrophotometer (12) and the area camera (13) on a single scanning head (10b).

A calibration plate is arranged on a support surface of a table. The calibration plate has first and second alignment marks arranged in one direction, and third and fourth alignment marks arranged in another direction that is orthogonal to the one direction. The first and second alignment marks that move in a front-and-rear direction are imaged by a first camera. The one direction of the calibration plate is made parallel to a front-and-rear direction based on the image. The positions of second and third cameras are adjusted based on the third and fourth alignment marks. The second and third cameras, positions of which have been adjusted, are moved to positions below the transfer roller, and a reference line formed at the transfer roller is imaged by the second and third cameras. An orientation of a rotation shaft of the transfer roller is adjusted in a plane parallel to the support surface based on these images.