A recording device includes a head including a plurality of nozzles discharging ink droplets and a head including a plurality of nozzles discharging ink droplets of a color identical to that of the ink droplets, a driving circuit configured to drive the former head at a drive voltage and drive the latter head by another drive voltage, an input unit configured to receive an input of selection information selected, based on comparison between a print image printed by the former head and a plurality of other print images G2 printed by the latter head, with the other drive voltage being changed individually, and a control unit configured to control the drive voltage and the other drive voltage, based on the selection information input from the input unit.

An object is to provide a thermal transfer printer having an inexpensive configuration and capable of making a tension given to an ink ribbon as constant as possible, even when a secular change and an environmental change occur in a DC motor used as a supply motor and a winding motor. A supply motor control unit controls a supply motor of an ink ribbon supply unit. A winding motor control unit controls a winding motor of an ink ribbon winding unit. A remaining amount detection unit detects a remaining amount of an ink ribbon. A variable calculation unit acquires parameters for an armature current, an applied voltage, and a rotational speed of each of the supply motor and the winding motor, and calculates variables to be used for controlling the supply motor and the winding motor on the basis of the acquired parameters.

A printing apparatus includes a printing head that prints printing data on a printing medium by electric power supplied from a battery, and a processor. The processor is operable to estimate, on the basis of first printing data indicating information on a first printing content to be printed on the printing medium and a remaining battery level of the battery, a first printing executable range which is a range in the first printing content that can be printed on the printing medium, and transmit information indicating the first printing executable range to an external terminal.

A printing apparatus includes a thermal head and a processor. The thermal head prints an image on lines in a medium. The thermal head includes heat-generating elements to generate heat when a voltage is applied thereto in an application time, and the thermal head is controlled to sequentially on print each line. The processor is configured to: determine a specific line among lines based on printing data for printing lines, the specific line being a line estimated to have a possibility of sticking; and adjust the application time of an adjustment target line so as to be shorter than a reference application time, the adjustment target line having at least one line among lines, the at least one line being a line which is to be printed immediately before the specific line, the reference application time being set based on a temperature of the thermal head.

In a printing device, a thermal head has heating elements and prints an image made up of line images. A memory stores sets of parameters, each set including one of first parameters and corresponding one of second parameters. The controller calculates an average consumed power with respect to a line image subject to calculation by dividing a total amount of consumed power by a period of time set in each first parameter, thereby providing average consumed powers for the sets of parameters. The total amount of consumed power is an accumulated consumed power consumed in the heating elements energized during printing in the period of time including a print timing of the line image subject to calculation. The controller sets a cycle time for printing the line image subject to calculation so that each average consumed power does not exceed an upper limit specified by corresponding one of second parameters.

The thermal printer includes a heating element, and a voltage supply circuit that supplies a drive voltage and a test voltage to the heating element. The voltage supply circuit includes a drive voltage supply circuit that is coupled to the heating element and that turns ON the supply of the drive voltage to the heating element, a test voltage supply circuit that is coupled to the heating element and that turns ON the supply of the test voltage to the heating element, a drive voltage stop circuit setting the supply of the drive voltage of the drive voltage supply circuit OFF, and a test voltage stop circuit setting the supply of the test voltage of the test voltage supply circuit OFF.

There is provided an image recording apparatus including: a head; a driving element; a controller configured to output, to the driving element, a driving signal having a first voltage level or a second voltage level greater than the first voltage level; and a moving mechanism causing one of the recording medium and the head to move relative to the other of the recording medium and the head. The controller sets the voltage level of the driving signal to be the first voltage level in a case that the controller causes the head to move relative to the recording medium at the first velocity; and the controller sets the voltage level of the driving signal to be the second voltage level in a case that the controller causes the head to move relative to the recording medium at the second velocity.

A thermal printer includes a thermal head in which a plurality of heating elements are arranged in a line, and a processor that executes a printing process of energizing the thermal head successively a predetermined number of times so at to print a printing data by causing a predetermined voltage to be applied to the thermal head the predetermined number of times in accordance with and in synchronization with strobe pulses in a strobe signal, a strobe width of each strobe pulse in the strobe signal defining a duration during which the thermal head is being applied with the predetermined voltage, wherein among the strobe pulses for the predetermined number of times of energizing the thermal head, a strobe width of at least one predetermined strobe pulse is set to be always shorter than a strobe width of another predetermined one of the strobe pulses.

A printing apparatus includes a print head having a heat generation element, a generation unit that generates print data for driving the heat generation element to form an image on a print medium and a drive unit that drives the heat generation element on a basis of the print data generated by the generation unit. The print medium includes a laminate of a plurality of image forming layers that generate develop mutually different colors by receiving heat. The generation unit generates the print data depending on a type of the print medium among a plurality of print medium types that differ from each other in order of lamination of the plurality of image forming layers.

A printer comprising a printhead configured to selectively cause a mark to be created on a substrate provided adjacent to the printer, the printhead having a first configuration in which the printhead is spaced apart from the printing surface and a second configuration in which the printhead is configured to press the substrate against a printing surface during a printing operation. The printer further comprises a printhead drive assembly configured to cause movement of the printhead towards and away from the printing surface between the first and second configurations, the printhead drive assembly comprising a permanent magnet and an electromagnet. When the electromagnet is in a first condition, an attractive magnetic force is generated between the permanent magnet and the electromagnet, and when the electromagnet is in a second condition, a repulsive magnetic force is generated between the permanent magnet and the electromagnet, each of said attractive and repulsive magnetic forces being configured to one of urge the printhead away from and towards the printing surface. The printhead drive assembly is configured such that, when the printhead is in each of the first and second configurations, it is retained in that configuration by the printhead drive assembly when the electromagnet is in the first condition, the printhead being retained in one of the first and second configurations by said attractive magnetic force generated between the permanent magnet and the electromagnet.