Abstract:
A system for conveying sheets of corrugated paperboard material or other materials. The system includes a processing module configured for transferring the material in a conveying direction, the processing module having a first nip point. A conveyor is positioned downstream of the processing module and also configured for transferring the material in the conveying direction. The conveyor includes a first support roller and second support roller having a first conveyor belt wound therearound, with the belt defining a deflector section extending from the first support roller to the second support roller. Similar to the processing module, the conveyor includes a second nip point. An adjustment drive can be operatively associated with either or both of the first and second support rollers and configured to adjust the position of the second nip point in or counter to the delivery direction.
Abstract:
An apparatus and process are provided for separating one or more endless streams of pages into corresponding staggered stacks of reports for further processing. Each page of a first report is taken from the endless stream and moved into a first position on a first stack of reports, and each page of the next subsequent report is moved onto a second stack staggered from the first. This process is continued indefinitely. Alternatively, more than two stacks can be provided for. Also, numerous endless streams of pages, in side-by-side relation, can be stacked into a plurality of stacks of reports in side-by-side relation so as to be conveniently assembled for further processing.
Abstract:
A driving apparatus includes an endless belt, a belt roller which engages the endless belt, a steering member and an adjustment member. The belt roller has a rotation shaft. The steering member contacts the endless belt at the inner side of the endless belt. The adjustment member is supported rotatably. The adjustment member receives a force in response to the endless belt moving in a longitudinal direction of the rotation shaft of the belt roller, and generates a pressing force that tilts the steering member via a rotational movement of the adjustment member.
Abstract:
A sheet feeding device has a conveying belt, a first roller, a second roller, a support portion, a takeout section. The conveying belt is wound along the first roller and the second roller, and the first roller forms a conveying terminal portion of the conveying belt in the first conveying direction. The second roller forms a slope portion of the conveying belt that slopes downward toward the conveying terminal portion. The support portion supports each of a plurality of sheets dropped from the conveying terminal portion in an upright position, at a position more downward in the vertical direction than the conveying terminal portion. The upper sheet, out of the sheets which are overlapping on the conveying belt in the vertical direction, is arranged to relatively deviate toward a downstream side in the first conveying direction than the lower sheet.
Abstract:
A substrate sheet transporting device is provided. The device includes a first transfer cylinder defining a first axis, a circumferential direction and a transverse direction and a transfer belt (74) extending around the first transfer cylinder. The first transfer cylinder includes first openings for the passage of a gas and the transfer belt includes second openings for the passage of a gas. The transfer belt and the first transfer cylinder define an alignment position in which the second passage openings are aligned with the first passage openings. The transfer device includes a device for adjusting the position of the transfer belt relative to the first transfer cylinder by bringing the transfer belt toward the alignment position. The invention is applicable to cutting devices of rotary printing presses.
Abstract:
A layboy conveyor includes a first end and a second end and an upper conveyor having a top and a bottom and a first end and a second end and a lower conveyor having a top and a bottom and a first end and a second end. The lower conveyor top is disposed adjacent to the upper conveyor bottom and defines with the upper conveyor bottom a transport path configured to transport a sheet of material in a direction from the first end of the layboy conveyor to the second end of the layboy conveyor. A drive is operably connected to the upper conveyor and to the lower conveyor, and the drive is configured to drive the upper conveyor bottom and the lower conveyor top in the direction. A length of the lower conveyor top is adjustable.
Abstract:
A layboy conveyor includes a first end and a second end and an upper conveyor having a top and a bottom and a first end and a second end and a lower conveyor having a top and a bottom and a first end and a second end. The lower conveyor top is disposed adjacent to the upper conveyor bottom and defines with the upper conveyor bottom a transport path configured to transport a sheet of material in a direction from the first end of the layboy conveyor to the second end of the layboy conveyor. A drive is operably connected to the upper conveyor and to the lower conveyor, and the drive is configured to drive the upper conveyor bottom and the lower conveyor top in the direction. A length of the lower conveyor top is adjustable.
Abstract:
Documents are fed in a stream through the first station of a machine that senses the last page of each document along alternative paths in order to accumulate the groups in a staggered stack on a vertically adjustable elevator. When this staggered stack reaches a predetermined number (N) the elevator drops down to off load the stack onto a takeaway conveyor. The documents continue to be accumulated at the second station on a reciprocating support surface that redeposits these additional documents on the elevator when the elevator returns to a raised position and the support surface is retracted.
Abstract:
An inkjet printer and a method for controlling an inkjet printer are disclosed. The inkjet printer is provided with an endless transport belt for transporting a medium to be printed; at least one roller for driving the transport belt and at least one additional roller for driving and/or suspending the transport belt; a detection system configured to detect a deformation of the transport belt including at least an in-plane bending deformation of at least a stretch of the transport belt and to generate at least one deformation signal indicating the detected deformation; an actuator assembly configured to change a position and/or orientation of at least one of the rollers of the inkjet printer; and a controller configured to control the actuator assembly based on the at least one deformation signal.