The transporting device includes a transporting path on which a medium recorded by the recording portion is transported in a transporting direction, and a contact portion that comes in contact with a front end of the medium, which is transported through the transporting path, to adjust a transporting state of the medium is adjusted. The transporting path has a guide portion that guides the medium to be transported to the contact portion, the guide portion has a first guide portion that is configured to swing, and a second guide portion that faces the first guide portion and is configured to swing, and the first guide portion and the second guide portion are disposed at a standby position when the medium is not transported through the transporting path, and are configured to move in directions away from each other from the standby position.

Perforated endless conveying belts are stretched between drive and idle rollers. A suction box is arranged between upper and lower belt portions of the perforated endless conveying belts. Abutment members are attached to positions of a support corresponding to the perforated endless conveying belts and pressed against the perforated endless conveying belts. The upstream of the suction box from the abutment members forms an attracting area, and intake holes are formed therein. Lifting plates extend to at least an intake hole range of the attracting area between the perforated endless conveying belts. The lifting plates move between a first position to vertically open the intake holes and project from conveying surfaces of the perforated endless conveying belts and a second position to close the intake holes and retract from the conveying surfaces of the perforated endless conveying belts.

A sheet bundle discharging apparatus K, including: a conveyance unit 66 configured to convey a sheet bundle; a guide unit 72 configured to guide the sheet bundle conveyed by the conveyance unit; a discharging unit 90 configured to discharge the sheet bundle to an outside of the sheet bundle discharging apparatus; and a receiving unit 81 configured to receive the sheet bundle guided by the guide unit, wherein the receiving unit includes: a contact portion 81c with which a leading end portion of the sheet bundle, which is guided by the guide unit, in a moving direction of the sheet bundle is to be brought into contact; and a pushing portion 81b, which is formed integrally with the contact portion, and is configured to push a first surface of the sheet bundle, and wherein the receiving unit is rotatable between a first position and a second position, and is configured to receive the sheet bundle in the first position and rotate from the first position to the second position, thereby allowing the pushing portion to push the first surface of the sheet bundle to place a second surface of the sheet bundle, which is on a side opposite to the first surface, on the discharging unit.

A sheet feeder includes an ejection tray, an ejector, an aligner, a pressing member, a friction member, and a switching device. The ejection tray stacks sheets. The ejector ejects a sheet to the ejection tray. The aligner is disposed downstream of the ejector in a direction of ejection of the sheet. The aligner is rotatable in a normal direction and a reverse direction. The pressing member applies pressure between the sheet and the aligner to enable the aligner to convey the sheet by rotation in the normal direction and the reverse direction. The friction member contacts the sheet ejected on the ejection tray to prevent conveyance of the sheet. The switching device switches contact and separation of the friction member with respect to the sheet.

A media storage bin has a guide member mounted via a hinge adjacent to a wall of an enclosure and a second free end. The guide member directs inserted media items downward and pivots around an axis of the hinge. A base plate is mounted below the guide member in the enclosure and is arranged to hold a stack of inserted media items on a top surface thereof. A motor is coupled to move the base plate up and down within the enclosure. A controller is coupled to control movement of the motor and is configured to provide signals to the motor to move the base plate to a predetermined home position adjacent to the guide member upon startup and move the base plate upward to compress any deformed inserted media items on the base plate until an input feedback signal reaches a predetermined level.

According to several embodiments, the invention relates to a device and a method for stacking card-like data carriers. The device includes a conveying device for transporting individual card-like data carriers downstream along a conveying path and a stacking unit for selectively transferring and stacking card-like data carriers conveyed along the conveying path. The conveying device is arranged to convey the card-like data carriers in such a way that they are fixed to it in a hanging mode of transport. The stacking unit is arranged to selectively release certain ones of the card-like data carriers conveyed along the conveying device from the latter in order to transfer them directly into a card magazine and to stack them therein.

A scanner includes a reading section configured to read a medium being transported, a discharge roller pair configured to nip the medium read in the reading section by a first roller and a second roller and discharge the medium, and a rib disposed in a position overlapping the discharge roller pair in a medium transport direction, the rib protruding from the first roller side toward the second roller side out of the first roller and the second roller, the rib including a first rib disposed on one side in a width direction intersecting the medium transport direction with respect to the discharge roller pair and a second rib disposed on the opposite side of the first rib in the width direction with respect to the discharge roller pair.

Example implementations relate to a print media handling apparatus comprising a media tray to support a stack of print media and to receive an incoming print media to be added to the stack of print media and a pusher to position the incoming print media onto the stack of print media by applying pressure transverse to the movement direction of the incoming print media proximal to a leading edge of the incoming print media.

A media storage bin has a guide member mounted via a hinge adjacent to a wall of an enclosure and a second free end. The guide member directs inserted media items downward and pivots around an axis of the hinge. A base plate is mounted below the guide member in the enclosure and is arranged to hold a stack of inserted media items on a top surface thereof. A motor is coupled to move the base plate up and down within the enclosure. A controller is coupled to control movement of the motor and is configured to provide signals to the motor to move the base plate to a predetermined home position adjacent to the guide member upon startup and move the base plate upward to compress any deformed inserted media items on the base plate until an input feedback signal reaches a predetermined level.

A sheet post-processing apparatus includes a first sheet conveyance passage, a second sheet conveyance passage, a sheet folding portion, and a merging portion. The second sheet conveyance passage branches off from a branch portion on the first sheet conveyance passage. The merging portion is located downstream of the branch portion on the first sheet conveyance passage, and there a folding conveyance passage of the sheet folding portion merges with the first sheet conveyance passage. When performing a folding process on a sheet, a controller guides the sheet conveyed from a sheet introduction port into the first sheet conveyance passage via the branch portion to the second sheet conveyance passage, then reverses the conveyance direction to guide the sheet to the sheet folding portion to perform the folding process, and passes the sheet through the folding conveyance passage, merges the sheet into the first sheet conveyance passage at the merging portion.