A medium transport device can be installed in an in-body discharge portion in a recording device including a recording unit, the recording unit being configured to perform recording on a medium. The medium transport device includes a transport unit positioned, in the recording device, between a first discharge path through which the medium is discharged to the in-body discharge portion and a first processing unit configured to perform first processing on the medium discharged to the in-body discharge portion, the transport unit being configured to transport the medium discharged from the first discharge path to the first processing unit, and an operation unit configured to enable manual operation of the transport unit.

An example system includes a stacking portion having a leading edge portion and a trailing edge portion, the stacking portion being to receive print media transported into the stacking portion in a direction from the trailing edge portion to the leading edge portion; a bar clamp extending longitudinally in the direction of transport of the print media; and a driver arrangement to selectively extend the bar clamp onto the stacking portion and to retract the bar clamp away from the stacking portion.

A cart comprising a support frame having a plurality of wheels, a reel supported by the support frame, and a tool tethered to the support frame.

The paper ejection apparatus includes a housing including an ejection slot for ejecting a paper and a storage space provided below the ejection slot, a tray, formed in an arcuate shape to extend downwards and stored in the storage space to be pullable out from the storage space, for stacking the paper ejected from the ejection slot when the tray is pulled out from the storage space, and a cover swingably provided on the housing between the ejection slot and an opening of the storage space. A swinging end of the cover moves downwards by working with an operation for pulling the tray out from the storage space.

A winding apparatus is disclosed for winding material around a core of flat shape rotated around a rotation axis carried by a crank that is in turn carried by another crank, the three rotation axes of the core and of the two cranks being motorized independently by respective electric cams, with three distinct laws of motion programmed to cancel the variations in position and speed of the material entering the core. The winding apparatus is used for the production of electric energy storage devices.

A sheet conveying device includes a motor, a first gear, a roller, a second gear, a first frame and a second frame. The first gear is attached to the motor. The second gear is attached to the roller, and in meshing engagement with the first gear. The first frame includes a wall having a side surface. The second frame is provided with: a first abutment portion in abutment with the side surface; and a second abutment portion in abutment with the side surface. The second abutment portion is positioned downstream of the first abutment portion in a second direction that is perpendicular to an axial direction of the roller. An abutment position between the second abutment portion and the side surface is positioned downstream in a first direction along the axial direction of the roller of an abutment position between the first abutment portion and the side surface.

The paper ejection apparatus includes a housing including an ejection slot for ejecting a paper and a storage space provided below the ejection slot, a tray, formed in an arcuate shape to extend downwards and stored in the storage space to be pullable out from the storage space, for stacking the paper ejected from the ejection slot when the tray is pulled out from the storage space, and a cover swingably provided on the housing between the ejection slot and an opening of the storage space. A swinging end of the cover moves downwards by working with an operation for pulling the tray out from the storage space.

A telescopic pneumatic linear actuator, particularly for unwinders with movable arms, includes a first annular cylinder, provided with a respective cavity, and a second annular cylinder, which can be inserted into and can slide within the cavity of the first annular cylinder and is provided with a respective cavity. The actuator also includes an annular piston, which can be inserted into and can slide within the cavity of the second annular cylinder. The first and second annular cylinders and the annular piston are provided with respective holes for the passage of a self-expanding spindle.

A medium conveyance device includes a drive roller that conveys an original in first direction, a guide in which a first surface and a second surface are formed, a slider in which a first point and a second point are formed, a pinch roller that is rotatably supported by a pinch shaft that is fixed to the slider and that pushes the original against the drive roller, and a sensor that measures a thickness of the original based on an amount of move of the slider in a second direction that is different from the first direction, wherein the first point slides on the first surface and the second point slides on the second surface and accordingly the slider is supported on the guide movably in the second direction and a distance between the first point and the second point is longer than a diameter of the pinch shaft.

Examples described herein include a star wheel mount that includes a support element. The support element includes a first clip element coupled to a first end to engage a first mounting element on a media handler housing, and a second clip element coupled to a second end opposite the first end to engage a second mounting element on the media handler housing. The star wheel mount also includes a star wheel support axle coupled to hold a star wheel in a plane perpendicular to a surface of the media handler housing.