A hybrid device for folding textile pieces of a plurality of sizes may include a frame supporting large and small textile piece folding portions. The hybrid device may include a selector configured to operate the hybrid device in either a large textile piece folding mode or a small piece folding mode. The hybrid device may include a large piece sensor beam configured to detect a size and a shape profile of a large size textile piece including regular and irregular shapes and sizes. The large textile piece folding portion may include a plurality of folding devices configured to impart a plurality of primary folds on the large size textile piece based on data received by the large piece sensor beam. The small textile piece folding portion may include a deflector for positioning and stacking a small size textile piece on a small piece draping bar.

A hybrid device for folding textile pieces of a plurality of sizes may include a frame supporting large and small textile piece folding portions. The hybrid device may include a selector configured to operate the hybrid device in either a large textile piece folding mode or a small piece folding mode. The hybrid device may include a large piece sensor beam configured to detect a size and a shape profile of a large size textile piece including regular and irregular shapes and sizes. The large textile piece folding portion may include a plurality of folding devices configured to impart a plurality of primary folds on the large size textile piece based on data received by the large piece sensor beam. The small textile piece folding portion may include a deflector for positioning and stacking a small size textile piece on a small piece draping bar.

A hybrid device for folding textile pieces of a plurality of sizes may include a frame supporting large and small textile piece folding portions. The hybrid device may include a selector configured to operate the hybrid device in either a large textile piece folding mode or a small piece folding mode. The hybrid device may include a large piece sensor beam configured to detect a size and a shape profile of a large size textile piece including regular and irregular shapes and sizes. The large textile piece folding portion may include a plurality of folding devices configured to impart a plurality of primary folds on the large size textile piece based on data received by the large piece sensor beam. The small textile piece folding portion may include a deflector for positioning and stacking a small size textile piece on a small piece draping bar.

A hybrid device for folding textile pieces of a plurality of sizes may include a frame supporting large and small textile piece folding portions. The hybrid device may include a selector configured to operate the hybrid device in either a large textile piece folding mode or a small piece folding mode. The hybrid device may include a large piece sensor beam configured to detect a size and a shape profile of a large size textile piece including regular and irregular shapes and sizes. The large textile piece folding portion may include a plurality of folding devices configured to impart a plurality of primary folds on the large size textile piece based on data received by the large piece sensor beam. The small textile piece folding portion may include a deflector for positioning and stacking a small size textile piece on a small piece draping bar.

A method and a device are specified for depositing a flexible material web, wherein the material web (2) is supplied by means of a supply means and deposited in a zigzag shape at a depositing location (2) by means of a laying means, wherein the material web (2) after exiting from the supply means is contacted by at least two engagement elements (5, 6), which can be moved at least in opposite laying directions (A, B), of the laying means and is guided to the depositing location (2). The engagement elements (5, 6) change their position during the contact with the material web (1) between an engagement position (E) and a release position (F), the quality of the deposited material web remaining largely unaffected, because each engagement element (5, 6) has a contact section (7, 8), which can be brought into a contact position (K) in the engagement position (E) and into an idle position (L) in the release position (F), wherein the movement direction (C, D) of the contact section (7, 8) is oriented at a downward angle to the laying direction (A, B).

A method and a device are specified for depositing a flexible material web, wherein the material web (2) is supplied by means of a supply means and deposited in a zigzag shape at a depositing location (2) by means of a laying means, wherein the material web (2) after exiting from the supply means is contacted by at least two engagement elements (5, 6), which can be moved at least in opposite laying directions (A, B), of the laying means and is guided to the depositing location (2). The engagement elements (5, 6) change their position during the contact with the material web (1) between an engagement position (E) and a release position (F), the quality of the deposited material web remaining largely unaffected, because each engagement element (5, 6) has a contact section (7, 8), which can be brought into a contact position (K) in the engagement position (E) and into an idle position (L) in the release position (F), wherein the movement direction (C, D) of the contact section (7, 8) is oriented at a downward angle to the laying direction (A, B).

An object of the present disclosure is to prevent wrinkles in a folding line portion of a paper irrespective of the conditions such as the type, the size, and the like of the paper, thereby securing the precision of the position of a folding line when a flap (such as a flap portion) of an envelope is folded back. The folding unit comprises a pair of an upper and a lower guide plates that defines part of the paper conveyance path at the folding position, and the folding plate is configured so that, when turning from the placement position to the overlap position, a lower face of the folding plate overlaps an upper face of the upper guide plate of the pair of the upper and the lower guide plates.

An object of the present disclosure is to prevent wrinkles in a folding line portion of a paper irrespective of the conditions such as the type, the size, and the like of the paper, thereby securing the precision of the position of a folding line when a flap (such as a flap portion) of an envelope is folded back. The folding unit comprises a pair of an upper and a lower guide plates that defines part of the paper conveyance path at the folding position, and the folding plate is configured so that, when turning from the placement position to the overlap position, a lower face of the folding plate overlaps an upper face of the upper guide plate of the pair of the upper and the lower guide plates.

Provided is a sheet folding device which can reduce the pellet exchange frequency and an operation stop time accompanying a pallet exchange. The sheet folding device includes: (a) first movement unit disposed to be able to be raised/lowered above a placement region; (b) a second movement unit which is supported by the first movement unit and reciprocates along the placement region in a first direction; and (c) a sheet discharge device which is supported by the second movement unit and has a sheet discharge port facing the placement region, the sheet discharge port reciprocating along the placement region in a second direction crossing the first direction. Sheets continuous in the longitudinal direction are discharged from the sheet discharge port of the sheet discharge device so that the width direction of the sheets crosses the second direction.

Provided is a sheet folding device which can reduce the pellet exchange frequency and an operation stop time accompanying a pallet exchange. The sheet folding device includes: (a) first movement unit disposed to be able to be raised/lowered above a placement region; (b) a second movement unit which is supported by the first movement unit and reciprocates along the placement region in a first direction; and (c) a sheet discharge device which is supported by the second movement unit and has a sheet discharge port facing the placement region, the sheet discharge port reciprocating along the placement region in a second direction crossing the first direction. Sheets continuous in the longitudinal direction are discharged from the sheet discharge port of the sheet discharge device so that the width direction of the sheets crosses the second direction.