A media processing apparatus includes a media transporter, a stacking portion on which media are stacked, a binding processing portion that binds an upstream end portion of a media bundle, a pair of ejection rollers that eject the media bundle, and a displacement mechanism that displaces a first roller of the pair of ejection rollers to a nipping position at which the media bundle is nipped and a separated position at which the first roller is separated from the media bundle, in which, when the media bundle, the upstream end portion of which is closed, is to be ejected from the stacking portion, the first roller is disposed in the nipping position and ejection of the media bundle is started, the first roller is displaced to the separated position during ejection of the media bundle, and, thereafter, the first roller is disposed again at the nipping position.

A printing apparatus includes a printing unit that performs printing on a printing medium, a transporting belt that transports the printing medium and has an endless shape, and a belt-driving roller that causes the transporting belt to circulate and has a cylindrical shape. In the transporting belt, a magnetic scale having a magnetic pole changing at a predetermined pitch is arranged along a transport direction of the printing medium. The belt-driving roller includes an outer circumferential surface constituted of a magnet body, and is in contact with the transporting belt at the outer circumferential surface. The circumferential length of the outer circumferential surface of the belt-driving roller is an integer multiple of the pitch of the magnetic scale.

A printing apparatus includes a printing unit that performs printing on a printing medium, a transporting belt that transports the printing medium and has an endless shape, and a belt-driving roller that causes the transporting belt to circulate and has a cylindrical shape. In the transporting belt, a magnetic scale having a magnetic pole changing at a predetermined pitch is arranged along a transport direction of the printing medium. The belt-driving roller includes an outer circumferential surface constituted of a magnet body, and is in contact with the transporting belt at the outer circumferential surface. The circumferential length of the outer circumferential surface of the belt-driving roller is an integer multiple of the pitch of the magnetic scale.

A medium transportation device includes a support table to support a medium, and a conveyor to transport the medium supported by the support table in a transportation direction. The conveyor includes a driving roller, a rail, and a pinch roller assembly. The driving roller is provided on the support table, extends in a perpendicular direction that is perpendicular to the transportation direction, and is rotatable in the transportation direction. The rail faces the support table and extends in the perpendicular direction. The pinch roller assembly is in engagement with the rail so as to be movable in the perpendicular direction along the rail. The rail includes shorter rails arranged along a line extending in the perpendicular direction.

A printer includes a driving roller to move a medium supported on a support table in a predetermined transportation direction, and pinch roller assemblies each including a pinch roller, a support to support the pinch roller to allow the pinch roller to contact, or to be spaced from, the driving roller, and an actuator provided upstream in the transportation direction with respect to the pinch roller. The actuator includes a contact portion contactable with the support, and an operation portion to press the contact portion to the support to move the pinch roller in a direction away from the driving roller.

The invention comprises a printing method, comprising the steps of: marking a markable surface with a graphical code; loading into a plotter system the markable surface; receiving a print job related to the graphical code; and plotting the set of vectors on the markable surface, such as by identifying a particular media type of the markable surface with the graphical code, receiving into the plotter system a print job, the print job comprising: (1) the set of vectors; and (2) a printable media requirement; scanning, with the plotter system, the printable media code; and confirming the printable media requirement matches the particular media type.

An image forming apparatus includes a printing device, a nipping rotator, an upstream support stand, a plurality of rotators, a supporter, and an adjusting mechanism. The printing device prints an image on a plate-shaped printing medium. The nipping rotator conveys the plate-shaped printing medium. The upstream support stand supports the plate-shaped printing medium at a position upstream from the nipping rotator in a conveyance direction of the plate-shaped printing medium. The plurality of rotators are disposed side by side. The supporter supports the plurality of rotators. The adjusting mechanism adjusts relative positions of the plurality of rotators and the supporter.

A pre-feed system and method for a liner-less label printer includes a drive roll that is configured to peel liner-less labels from a reel and pass the labels to an in-line label printer at a consistent rate. An idler roll disposed in proximity to the drive roll creates a nip for pulling labels from the reel. The idler roll is comprised of silicone which prevents the adhesive side of the liner-less label from sticking. A print controller monitors a non-contact reflective object sensor disposed in proximity to the path of the liner-less labels between the drive roll and the in-line printer. The print controller adjusts the speed of the drive roll to maintain a consistent rate for labels entering the print feed of the in-line label printer and reduces the amount of force required to feed labels into the printer.

A pre-feed system and method for a liner-less label printer includes a drive roll that is configured to peel liner-less labels from a reel and pass the labels to an in-line label printer at a consistent rate. An idler roll disposed in proximity to the drive roll creates a nip for pulling labels from the reel. The idler roll is comprised of silicone which prevents the adhesive side of the liner-less label from sticking. A print controller monitors a non-contact reflective object sensor disposed in proximity to the path of the liner-less labels between the drive roll and the in-line printer. The print controller adjusts the speed of the drive roll to maintain a consistent rate for labels entering the print feed of the in-line label printer and reduces the amount of force required to feed labels into the printer.

A recording device includes a recoding unit, a discharge rollerunit, a medium receiving tray, a motor serving as a power source of the discharge roller, a power transmission unitunit that is configured to switch between a power transmission state in which power of the motor is transmitted from the motor to the medium receiving tray, and a power non-transmission state in which the power of the motor is not transmitted from the motor to the medium receiving tray, and a restriction unitunit that is configured to switch between a restriction state in which the restriction unit restricts displacement of the medium receiving tray when the power transmission unit is in the power non-transmission state, and a non-restriction state in which the the restriction unit does not restrict the displacement of the medium receiving tray when the power transmission unit is in the power transmission state.