A print module includes: a body housing first and second opposed printed circuit boards (PCBs), each of the first and second PCBs having heat-generating electronic components; an air inlet and an air outlet positioned towards an upper part of the body; an air pathway extending between the air inlet and the air outlet; a plurality of heatsinks, each heatsink being thermally coupled with one of the heat-generating components and having an array of cooling fins extending into the air pathway; and an inkjet printhead receiving power and print data from at least one of the first and second PCBs. The inkjet printhead is positioned toward a lower part of the print module.

A cleaning device includes a blade unit configured to move relative to an ink jet head and to wipe an ejection surface of the ink jet head. The blade unit includes a first blade and a second blade that are arranged in a moving direction of the blade unit and formed into flexible plate shapes and a blower that makes an inner space, which is defined by the first blade and the second blade, into a negative pressure.

A method of wiping an inkjet printhead. The method includes the steps of: lifting a print module carrier relative to a media feed path, the print module carrier having a mounting arm bridging over a wiper carriage parked at one longitudinal end of a printhead carried by the print module carrier; and moving the wiper carriage, from its parked position below the mounting arm, longitudinally along the printhead to wipe a surface of the printhead.

A print pen capping apparatus for a printer comprises a cap station carrying one or more caps, wherein the cap station is moveable between a retracted position in which the cap station is arranged at a side of a print media path and a capping position adjacent the media path for capping the print pen.

A liquid ejecting apparatus includes: an apparatus main body; a plurality of liquid ejecting heads that have a nozzle-formed surface; a unit base to which the plurality of liquid ejecting heads are fixed; a lifter that is fixed to the apparatus main body and causes a position of the nozzle-formed surface to move with respect to the apparatus main body; and a non-contact sensor unit that is provided in the apparatus main body and the unit base and identifies a position of the nozzle-formed surface with respect to the apparatus main body.

A head maintenance device includes a cap configured to cap a nozzle surface of a head configured to discharge a liquid, a wiper configured to wipe the nozzle surface of the head, a holder configured to vertically movably hold the cap and the wiper to a height at which the cap and the wiper bite into the absorbing member, and a cleaner configured to move relative to the cap and the wiper, the cleaner comprising an absorbing member configured to contact the cap and the wiper.

A liquid discharge apparatus is provided, which comprises a conveyer, a rotatable support mechanism which supports a medium, a head, and a maintenance mechanism which has a cap configured to cover nozzles of the head. The support mechanism is configured to rotate about a rotation shaft to a first rotation position and a second rotation position at which a rotation end is separated further from the head as compared with a situation provided at the first rotation position. The maintenance mechanism is configured to move to a waiting position which is positioned oppositely to the rotation shaft of the support mechanism with respect to the rotation end of the support mechanism and a maintenance position which is positioned between the head and the support mechanism disposed at the second rotation position and at which the cap covers the nozzles.

A printing unit includes: a sleeve and a print module received in the sleeve, the print module being slidably removable, in a first direction, from the sleeve. The print module includes a supply module and a replaceable printhead. The printhead is slidably removable, in a second direction, from the supply module, the first and second directions being non-parallel.

An image forming apparatus includes a communication interface, an image forming unit, a plurality of sheet feeders, and a motor configured to selectively apply a drive force any of the sheet feeders. A transmission assembly switches transmission to any one of the sheet feeders. A controller receives preceding data from the communication interface, and, in response, controls the transmission assembly to initiate a switch of the transmission of the drive force to a standard sheet feeder among the plurality of the sheet feeders. In response to receipt control data received after the preceding data, the controller controls the image forming unit, motor, and transmission assembly to form an image on the sheet based on an image forming condition included in the control data.

An apparatus for a fluidic ejection device and a fluidic ejection device containing the apparatus. The apparatus includes a pivot member having at least a first position and a second position, a shaft attached on a first end thereof to the pivot member and on a second end distal from the first end to a capping structure, wherein pivot of the pivot member pivots the capping structure from a first capped position to a second uncapped position adjacent an ejection head of the fluidic ejection device.