A pusher plate stacking bin apparatus is provided for a valuable media depository. The apparatus comprising a pusher plate driven by a rack and pinion apparatus to stack a media item that is in a final position within the apparatus onto a media stacking platform. The media item is urged into the final position such that a trailing edge of the media item overhangs and rests on a fixed media guide and such that a leading edge of the media item overhangs and rests on a hinged media guide with a bottom surface of the media item elevated above the media stacking platform. The rack and pinion apparatus drives the plate past the media guides causing the hinged media guide to drop and the media item to fold along the leading edge as the media item is stacked onto the platform.

A sheet handling device includes: a first storage; a second storage using a storage method different form that of the first storage; a transporter that transports a sheet; and a controller that controls the transporter to transport the sheet. When the second storage is neither a transport source of the sheet nor a transport destination of the sheet, the controller controls the transporter to transport the sheet at a first speed. When the second storage is at least the transport source of the sheet or the transport destination of the sheet, the controller controls the transporter to transport the sheet at a second speed lower than the first speed.

A medium handover device is provided including: a fixed peripheral side section that covers portions of side faces enclosing a periphery of a collection space in which a paper sheet shaped medium is collected, other than at least a portion of an opposing side face opposing a medium support section supporting the medium inside the collection space, which portion is open, and other than at least a portion of an adjacent side face adjacent to the opposing side face, which portion is open; a lid section that has a shape covering portions of the side faces enclosing the periphery of the collection space that are not covered by the fixed peripheral side section; a transition section that transitions the lid section to enable the lid section to adopt a closed state with respect to the fixed peripheral side section in which the lid section is close to or abutting the fixed peripheral side section and the collection space is closed, and to adopt an open state with respect to the fixed peripheral side section in which at least a portion of the lid section is separated from the fixed peripheral side section and the collection space is opened; and a transfer section that transfers the medium between an interior and an exterior of the collection space.

A medium handover device is provided including: a fixed peripheral side section that covers portions of side faces enclosing a periphery of a collection space in which a paper sheet shaped medium is collected, other than at least a portion of an opposing side face opposing a medium support section supporting the medium inside the collection space, which portion is open, and other than at least a portion of an adjacent side face adjacent to the opposing side face, which portion is open; a lid section that has a shape covering portions of the side faces enclosing the periphery of the collection space that are not covered by the fixed peripheral side section; a transition section that transitions the lid section to enable the lid section to adopt a closed state with respect to the fixed peripheral side section in which the lid section is close to or abutting the fixed peripheral side section and the collection space is closed, and to adopt an open state with respect to the fixed peripheral side section in which at least a portion of the lid section is separated from the fixed peripheral side section and the collection space is opened; and a transfer section that transfers the medium between an interior and an exterior of the collection space.

The device for producing packages of stacked materials consisting of a plurality of individual signatures comprises a first conveying unit, which defines a signature path. The first conveying unit moves the signatures along the signature path into a vertical position. The device also comprises a stacking table with a support surface for supporting the signatures, which are arriving with a vertical orientation. The stacking table comprises a second conveying unit, which moves the stacked signatures in a conveying direction of the stack. A control unit switches a tilting device between an active state, in which the tilting device tilts or compresses an upper area of the stacked signatures, and an inactive state, in which the tilting device exerts no effect on the stacked signatures.

The device for producing packages of stacked materials consisting of a plurality of individual signatures comprises a first conveying unit, which defines a signature path. The first conveying unit moves the signatures along the signature path into a vertical position. The device also comprises a stacking table with a support surface for supporting the signatures, which are arriving with a vertical orientation. The stacking table comprises a second conveying unit, which moves the stacked signatures in a conveying direction of the stack. A control unit switches a tilting device between an active state, in which the tilting device tilts or compresses an upper area of the stacked signatures, and an inactive state, in which the tilting device exerts no effect on the stacked signatures.

A banknote dispensing/receiving mechanism of a banknote processing device includes a housing and a baffle, the baffle is an elastic retaining piece, the elastic retaining piece has one end fixed with respect to the housing and another end being a free end, and the elastic retaining piece is located in the discharging route of banknotes. When the banknote dispensing/receiving mechanism operates, after the banknotes being discharged by a banknote-dispensing conveying mechanism, the banknotes fall onto the elastic retaining piece, and the elastic retaining piece provides a supporting force for the banknotes. When all the banknotes are discharged, the banknotes are pushed by a banknote pushing plate to apply a pushing force to the elastic retaining piece, and at this moment the elastic retaining piece generates a plastics deformation, which makes the banknotes and the banknote pushing plate pass through the elastic retaining piece together, to further perform subsequent operations.

A banknote dispensing/receiving mechanism of a banknote processing device includes a housing and a baffle, the baffle is an elastic retaining piece, the elastic retaining piece has one end fixed with respect to the housing and another end being a free end, and the elastic retaining piece is located in the discharging route of banknotes. When the banknote dispensing/receiving mechanism operates, after the banknotes being discharged by a banknote-dispensing conveying mechanism, the banknotes fall onto the elastic retaining piece, and the elastic retaining piece provides a supporting force for the banknotes. When all the banknotes are discharged, the banknotes are pushed by a banknote pushing plate to apply a pushing force to the elastic retaining piece, and at this moment the elastic retaining piece generates a plastics deformation, which makes the banknotes and the banknote pushing plate pass through the elastic retaining piece together, to further perform subsequent operations.

The repositioning station (200) allows a continuous shingled stream (120) of overlapping semirigid planar articles (100) to be transported on an incoming conveyor (122) along a transport circuit (204) onto an outgoing conveyor (302) so as to form a stack that can be carried away upon the outgoing conveyor (302). The repositioning station (200) includes a lateral deviation assembly (210) and may also include a final positioning assembly (212). The transport circuit (204) within the lateral deviation assembly (210) follows a generally ellipsoidal deviation path to veer the shingled stream (120) and also to pivot the articles (100) therein about a curvilinear axis (206) from a facedown position to an upright position. The outgoing conveyor (302) can carry the cartons (100) in a direction that is parallel to that of the incoming conveyor (122).

In a method for forming product stacks of folded or unfolded product blanks made of paper or chemical pulp, product blanks are supplied consecutively to a stacking surface and placed in an upright position. A separating element is inserted between two consecutive product blanks as the product blanks are moved against a channel wall of a discharge channel for temporary support of a rear side of the product blanks, to thereby form a first product stack with a predetermined number of product blanks between the separating element and the channel wall. The channel wall is opened to thereby allow the first product stack to be transferred to the discharge channel, and a sliding element is inserted between the product stack and a subsequent second product stack, as the first product stack is moved to the discharge channel.