A printing control device is for a printing unit that is capable of adjusting a gap g between a recording head and a platen and performs main scanning to move the recording head in the main scanning direction with respect to the print substrate and sub-scanning to move the print substrate in a sub-scanning direction relative to the recording head. The printing control device includes a sub-scanning control unit that controls sub-scanning so that a first sub-scanning distance in a case in which the gap g is a first gap is shorter than a second sub-scanning distance in a case in which the gap g is a second gap broader than the first gap, in the sub scanning which corresponds to pseudo-band printing scheme and which is sub-scanning of a longer distance than a pitch of the nozzles of the nozzle line in the sub-scanning direction.

In accordance with an embedment, a printer comprises a sensor configured to detect a position of a paper conveyed in a conveyance path; a first setting module configured to set a plurality of start candidate positions which are candidates of a printing start position in a paper conveyance direction based on a sensing result of the sensor; a test printing module configured to carry out a test printing for specifying the start candidate position on the paper for each start candidate position set by the first setting module; a reception module configured to receive selection of one start candidate position from the start candidate positions specified by the test printing; and a second setting module configured to set the start candidate position received by the reception module as the printing start position.

A sub-scanning distance in a case in which a gap between a recording head and a platen is broader than a second gap broader a first gap is lengthened more than a sub-scanning distance in a case in which the gap is the first gap more when sub-scanning which is sub-scanning of a longer distance than a pitch of nozzles of a nozzle line in a sub-scanning direction is performed. A sub-scanning distance in a case in which the record density of a print image of a specific print region is second record density higher than first record density may also be lengthened more than a sub-scanning distance in a case in which the record density is the first record density when the sub-scanning which is the sub-scanning of the longer distance than the pitch of the nozzles of the nozzle line in the sub-scanning direction is performed.

An image forming apparatus is connected to a paper processing apparatus and includes an image forming unit, a nip part and a hardware processor. The image forming unit performs image forming on continuous paper being conveyed on a conveyance path. The nip part nips the paper on the conveyance path. The processor selectively performs first control and second control according to an output timing of a conveyance control signal if the signal is output from the paper processing apparatus or the image forming apparatus. In the first control, the processor notifies the paper processing apparatus of permission to start or stop conveying the paper after causing the nip part to perform a press-and-contact operation or a separation operation. In the second control, the processor notifies the paper processing apparatus of the permission without causing the nip part to perform either operation.

In accordance with an embedment, a printer comprises a sensor configured to detect a position of a paper conveyed in a conveyance path; a first setting module configured to set a plurality of start candidate positions which are candidates of a printing start position in a paper conveyance direction based on a sensing result of the sensor; a test printing module configured to carry out a test printing for specifying the start candidate position on the paper for each start candidate position set by the first setting module; a reception module configured to receive selection of one start candidate position from the start candidate positions specified by the test printing; and a second setting module configured to set the start candidate position received by the reception module as the printing start position.

The disclosure discloses a printer includes a controller. The controller performs a first feed control process, a temperature-difference calculation process, and a first printing speed determination process. In the first feed control process, in a state where an energizing device does not perform energization to the heating element, the driving device is controlled to perform non-energization feeding while causing a thermal head to contact a print-receiving medium. In the temperature-difference calculation process, during execution of the non-energization feeding, a first deviation between two of the head temperatures which are respectively detected by the first temperature detecting device at different timings is calculated. In the first printing speed determination process, the printing speed is determined on the basis of the first deviation.

To provide a printing device such as an inkjet device capable of transporting a recording medium at satisfactory precision with a simple configuration. The inkjet device includes a feed amount correcting section that corrects a feed amount of a recording medium, and a control section that controls the feed amount correcting section. The feed amount correcting unit includes a moving section that moves with a movement of the recording medium in a transporting direction and a displacement sensor section that detects a displacement amount of the moving section, and the control section controls the feed amount of the recording medium based on a difference between a feed amount acquired at a time of printing and a set feed amount set in advance.

A printer includes: a first conveyor configured to convey a recording medium during image formation by an image former at a first conveyance speed based on a print condition of the image formation by the image former; a second conveyor configured to convey the recording medium at a second conveyance speed higher than the first conveyance speed; and a third conveyor arranged between the first conveyor and the second conveyor on a conveyance route. The third conveyor is configured to start acceleration of the recording medium after a recording region trailing end of the recording medium passes the image former and accelerate the recording medium such that a speed of the recording medium increases to the second conveyance speed not later than a time point when a leading edge of the recording medium reaches the second conveyor.

A print data generation device includes a control unit that generates print data, and the control unit calculates a label length for a label to be printed on the basis of the first print data, acquires a maximum label length, generates first print data in a case in which a calculated label length, which is a label length that is calculated, does not exceed the maximum label length, and generates second print data, the label length of which is equivalent to the maximum label length, in a case in which the calculated label length exceeds the maximum label length.

According to one embodiment, a thermal heat transfer printer (printer device) includes a printing data look-ahead unit configured to look ahead a data printing position if printing is performed; a head position control unit configured to cause a thermal head, an ink ribbon, and printing paper to be in a contact state or a non-contact state based on a look-ahead result of the printing data look-ahead unit; an ink ribbon saved amount calculation unit configured to calculate a saved amount of the ink ribbon based on a conveyed amount of the printing paper in the non-contact state; and an ink ribbon saved amount display unit configured to display the saved amount calculated by the ink ribbon saved amount calculation unit.