Provided is a drive transmission switching mechanism that can switch and drive two circulation units by one motor in response to a switching operation of a paper sheet transport direction. A paper sheet storage unit includes a first circulation unit 100 and a second circulation unit 200 that respectively receive transported paper sheets upon reception of a drive force from a single motor 302 and feed paper sheets stored therein, a sorter 310 that sorts paper sheets to either one of the circulation units, and a drive transmission switching mechanism 400 that transmits a drive force from the motor to either one of the circulation units. The drive transmission switching mechanism is activated in conjunction with an operation to change the posture of the sorter, thereby switching and transmitting the drive force to either one of the circulation units.

A banknote feeder device (3) configured to interconnect and operate in conjunction with a banknote acceptor apparatus (2), the banknote feeder device (3) comprising a banknote transport mechanism operable, when the banknote feeder device (3) is connected to the banknote acceptor apparatus (2), to transport a banknote from a banknote input aperture to a banknote output aperture. The banknote transport mechanism comprises a linear succession of spaced-apart pairs of transport wheels (22) and each transport wheel extends at least partially through a banknote transport conduit surface into an interior cavity of the banknote transport conduit between the banknote input aperture and the banknote output aperture.

A printed unit block aligning device includes a supporting element and an alignment transfer rail. The supporting element is opened and closed between a supporting position and a releasing position. The alignment transfer rail receives the group of the printed unit blocks dropped in response to move of the supporting element to the releasing position, aligns the printed unit blocks in each line unit block in a vertical direction, and feeds the printed unit blocks vertically at a constant speed using alignment transferring element. An electrical controlling element is provided that electrically controls timing of dropping the printed unit blocks from the supporting element onto the alignment transfer rail. While a speed of transfer of the horizontal feeding and transferring element are uniform for any imposition structure, the electrical controlling element controls timing of dropping the printed unit blocks in a manner that depends on the numbers of layers in each vertical line in different imposition structures.

To provide a sheet processing system which can properly perform sorting processing of a plurality of kinds of sheets, while making each of a plurality of sheet processing apparatuses effectively operate.

A sheet processing system of an embodiment has a plurality of sheet processing apparatuses, a sorting apparatus, a storage unit, an information acquisition unit, and a controller. The plurality of sheet processing apparatuses each has a plurality of stackers for stacking sheets. The plurality of sheet processing apparatuses each sorts and stacks the sheets in the plurality of stackers. The plurality of sheet processing apparatuses each outputs information of a stacking status of the sheets in each of the plurality of stackers. The sorting apparatus sorts and feeds a sheet group formed of a plurality of the sheets to any of the plurality of sheet processing apparatuses. The storage unit stores the information of the stacking status of the sheets in each of the plurality of sheet processing apparatuses. The controller controls sorting of the sheet group by the sorting apparatus, based on the information of the sheet group which the information acquisition unit acquires, and the information of the stacking status of the sheets in the storage unit.

A bundle conveyance unit conveys a medium bundle created by a storage unit in a conveyance direction along a bundle conveyance path. Either the storage unit or the bundle conveyance unit includes a conveyance guide that is disposed at a connection location between the storage unit and the bundle conveyance unit, that forms a portion of the bundle conveyance path, and that transitions between a state communicating the bundle conveyance path with the inside of a reject storage box, and a state communicating the bundle conveyance path with the inside of a stacking section.

A deskew module of a valuable media depository is selectively controlled ejection processing. Upon detection of a jammed item of media within the deskew module, angled drives are activated to lift a jammed corner of the item off a track base of the deskew module and free the item's jammed corner. Next, straight drives are activated to eject the item from the deskew module.

A system for sequencing a preparing station that sequences loads coming from an external unit via an entering outbound conveyor. The system includes a paternoster, a buffer location and a managing unit, which processes each load that comes to an entrance of the paternoster according to one of the following modes (selected as a function of a place desired for the load in a sequence): (a) after introduction into the paternoster, the load undergoes a bypass transfer between two nacelles positioned face to face and then presented to an exiting outbound conveyor; (b) after introduction into the paternoster, the load undergoes a buffer transfer towards a given buffer location and then subsequently re-positioned again in the paternoster and finally presented to the exiting outbound conveyor; (c) after introduction into the paternoster, the load is transported therein without bypass transfer or buffer transfer and then presented to the exiting outbound conveyor.

Provided is an aligner capable of aligning a sheet during transport in a direction orthogonal to a transport direction. The aligner includes: a transport path; a linear-motion transport unit that generates a drive force in a transport direction along the transport path to a sheet on the transport path; a left-skew transport unit that is disposed in a left direction with respect to the transport direction of the linear-motion transport unit and generates a drive force in a left-oblique direction inclined in the left direction to the sheet on the transport path; and a right-skew transport unit that is disposed in a right direction with respect to the transport direction of the linear-motion transport unit and generates a drive force in a right-oblique direction inclined in the right direction to the sheet on the transport path.

A feeder device for feeding a stack of value documents to a singler device, and is configured to withdraw individual value documents from the stack. The feeder device includes a stop element having front and back sides; two lateral guide elements provided at the front side of the stop element and configured to guide the stack at two lateral sides of the stack towards the singler device; two support elements, on which the lateral guide elements are mounted; and two or more bearing elements by which the support elements are movably mounted on the stop element to allow the respective positions of the lateral guide elements and/or the distance of the lateral guide elements relative to each other to be changed. The invention further relates to an according method, a singler device, a singler module and a system for processing value documents.

A conveyance route switching mechanism and a paper sheet handling apparatus that includes the conveyance route switching mechanism include a driving source, a gate, a first gear, and an internal gear. The driving source includes a driving shaft. The gate includes a gate shaft, and a blade that is provided on the gate shaft, and switches conveyance routes of paper sheets. The first gear is provided on the gate shaft. The internal gear meshes with the first gear. According to rotation of the driving shaft, the gate shaft rotates on an axis of the gate shaft, and revolves with the driving shaft as a rotation center while the first gear meshes with the internal gear.