In order to enable a sheet end portion to be properly guided to a nip portion in performing folding processing a plurality of times, provided are a transport path including a guide face to guide a transported sheet, a rotating body pair which nips the sheet transported to the transport path by a nip portion to rotate, a folding blade that pushes the sheet to the nip portion of the rotating body pair, and a blade guide member including a guide portion for pushing one end of the sheet to the nip portion when the folding blade pushes the sheet to the nip portion, and a shift section that shifts the folding blade and the blade guide member in a push direction for pushing to the nip portion and in a return direction opposite to the push direction.

There is provided a sheet feeding apparatus. A supporting unit rotatably supports a roll sheet formed by winding a continuous sheet into a roll shape. A first conveying path forming member is placed in a position spaced apart from the roll sheet supported by the supporting unit, and forms a first conveying path of the sheet. A displacing unit includes a guide portion capable of being displaced between a guide position and a retracting position set farther from a start position than the guide position. The guide portion is displaced from the retracting position to the guide position when a leading edge of the sheet separated from the roll sheet supported by the supporting unit is positioned between the guide portion in the retracting position and the start position.

A method for providing rolls of material for use in sheet form, particularly aluminum for food uses, comprising a step of rewinding the material for use in sheet form in order to form a roll; the rewinding step is provided by winding the material for use in sheet form directly on a rewinding shaft, with the material for use in sheet form in contact with a cylindrical outer lateral surface of the rewinding shaft, which is actuated with a rotary motion about its longitudinal axis, so as to obtain a coreless roll.

A printer includes: a conveyor; a printing device; a full-cut unit provided downstream of the printing device; a roller provided downstream of the full-cut unit; a nip member; a motor; and a controller configured to: control the full-cut unit to fully cut the printing medium; control the motor to establish a state in which a leading printing medium is nipped between the roller and the nip member; and control the conveyor to convey a succeeding printing medium downstream while controlling the printing device to perform printing on the succeeding printing medium.

A sheet separation device separates a non-bonding portion of a two-ply sheet in which two sheets are overlapped and bonded together at one end of the two-ply sheet. The sheet separation device includes a separator that includes a first separator and a second separator. The first separator is inserted into a gap between the two sheets of the two-ply sheet. The second separator is inserted between the two sheets at said another end of the two-ply sheet that is opposite to the one end of the two-ply sheet and moves in a width direction of the two-ply sheet after the first separator is inserted into the gap and relatively moves from the one end to said another end.

A note directing device (1) comprises a first note feeder (11), a brushed roller (2), and a second note feeder (12); wherein: the first note feeder (11) feeds the bank note (10) along a direction (A) tangential to a bank note (10) surface and presents the leading edge (14) of the bank note (10) to the brushed roller (2); the brushed roller (2) engages with the bank note (10) and rotates in a direction (B) such that the leading edge (14) is directed towards the second note feeder (12); the second note feeder (12) accepts the leading edge (14) and feeds the bank note (10) along a direction (C) tangential to a bank note (10) surface; wherein the brushed roller (2) comprises an axis (4) and bristles (6), each bristle (6) being attached at one end to the axis (4) and extending radially from said axis (4), the distribution of bristles (6) extending along a longitudinal direction (E) of the axis (4).

A sheet folding system includes a plurality of sheet folding apparatuses configured to receive and perform a folding process on a sheet and circuitry configured to distribute sheets to the plurality of sheet folding apparatuses. Each of the plurality of sheet folding apparatuses includes a folding device configured to fold the sheet, a first conveyance passage configured to convey the sheet downstream in a sheet conveyance direction without passing through the folding device, a second conveyance passage configured to convey the sheet to the folding device, a third conveyance passage configured to convey the sheet from the folding device downstream in the sheet conveyance direction, and a junction between the first conveyance passage and the third conveyance passage. The circuitry controls sheet conveyance to prevent an interference, at the junction, between the sheet conveyed from the first conveyance passage and the sheet conveyed from the third conveyance passage.

A sheet handling apparatus includes a transport path that includes a first path, a second path, and a curved portion connecting the first path and the second path, the transport path circularly transports a sheet along the transport path in a forward direction or a backward direction. The sheet handling apparatus further includes a rolling body that is disposed at the curved portion and rotates clockwise and counterclockwise, and a plurality of rollers that are opposed to the rolling body and sandwich the sheet between each of the plurality of rollers and the rolling body along the curved portion of the transport path. The rolling body transports the sheet in the forward direction by rotating clockwise and transports the sheet in the backward direction by rotating counterclockwise.

A medium conveyance route switching device includes a support unit, a gate assembly, and a rotation mechanism. The support unit is located at a branching point of a first conveyance path, a second conveyance path and a third conveyance path where conveyance directions of a medium converge in three directions. The gate assembly includes a first to a third gate positioned on one ends of the first to the third conveyance path to guide at the branching point the medium to other conveyance paths than a conveyance path from which the medium is conveyed. The rotation mechanism includes a first actuator rotating the first gate to switch the medium conveyed from the first conveyance path to the second conveyance path or the third conveyance path, and a second actuator, when the first gate is rotated, rotating the second gate and the third gate in associated with the second gate.

An image forming apparatus includes a housing, a sheet conveyor, a sheet stacker, and circuitry. The sheet conveyor is configured to convey a sheet on which liquid is applied. The sheet stacker is configured to stack the sheet conveyed by the sheet conveyor. The circuitry is configured to control conveyance of the sheet. The circuitry is configured to cause the sheet conveyor to expose the sheet on which the liquid is applied, to an outside of the housing, and convey the sheet to the sheet stacker.