A one-piece blank for a cuboid folding box includes five main panel segments arranged in a row and separated from one another on transverse sides via main fold lines, a second secondary panel segment adjoining a second main panel segment on a longitudinal side, including an edge, and adjoining the second main panel segment via a second secondary fold line, and a third secondary panel segment adjoining a third main panel segment on a longitudinal side via a third secondary fold line. The secondary fold lines are perpendicular to the main fold lines, a first perforation line extends over the third main panel segment and at least partially over the third secondary panel segments. The third secondary panel segments are each divided by the first perforation line into a first region adjacent to the second secondary panel segment and a second region adjacent to the fourth secondary panel segment. Shapes of the second secondary panel segments and a course of the first perforation line are such that, in a folded state, the second secondary panel segments overhang the first perforation line in a region of the third secondary panel segments.

A machine for forming a container from a blank includes a mandrel mounted to a frame. The mandrel includes a first side, an opposite second side, and an external shape complementary to an internal shape of at least a portion of the container. The machine also includes a first presser arm, a folding arm, and a second presser arm each coupled to the frame. The first presser arm is positionable generally proximate the first side of the mandrel and is configured to wrap a first portion of the blank about the mandrel. The folding arm is positionable at least generally proximate the second side of the mandrel and is configured to wrap a second portion of the blank about the mandrel. The second presser arm is disposed generally proximate the first presser arm and is configured to wrap a third portion of the blank about the mandrel.

A machine for forming a container from a blank includes a mandrel mounted to a frame. The mandrel includes a first side, an opposite second side, and an external shape complementary to an internal shape of at least a portion of the container. The machine also includes a first presser arm, a folding arm, and a second presser arm each coupled to the frame. The first presser arm is positionable generally proximate the first side of the mandrel and is configured to wrap a first portion of the blank about the mandrel. The folding arm is positionable at least generally proximate the second side of the mandrel and is configured to wrap a second portion of the blank about the mandrel. The second presser arm is disposed generally proximate the first presser arm and is configured to wrap a third portion of the blank about the mandrel.

A case erector may operate in multiple modes. In a slotted-case mode, the case erector may accept and erect slotted cases, while various plunger-case erection components are deactivated. In a plunger-case mode, the case erector may accept and erect plunger cases, while various slotted-case erection components are deactivated.

A case erector may operate in multiple modes. In a slotted-case mode, the case erector may accept and erect slotted cases, while various plunger-case erection components are deactivated. In a plunger-case mode, the case erector may accept and erect plunger cases, while various slotted-case erection components are deactivated.

Provided is a carton production method capable of preventing quality deterioration which may happen during the sealing due to adhesion of an adhesive. This method comprises: a first insertion step K1 of rotating the lid body toward the one side surface of the box body to a position where the inserting flap overlaps the suspension hole; an application step K2 of applying an adhesive to the inserting flap through the suspension hole; a second insertion step K3 of curving the one side surface of the box body inserting the insertion flap and closing the upper surface of the box body with the lid body; and an adhesion step K4 of bonding the inserting flap to the inside of the one side surface of the box body.

Provided is a carton production method capable of preventing quality deterioration which may happen during the sealing due to adhesion of an adhesive. This method comprises: a first insertion step K1 of rotating the lid body toward the one side surface of the box body to a position where the inserting flap overlaps the suspension hole; an application step K2 of applying an adhesive to the inserting flap through the suspension hole; a second insertion step K3 of curving the one side surface of the box body inserting the insertion flap and closing the upper surface of the box body with the lid body; and an adhesion step K4 of bonding the inserting flap to the inside of the one side surface of the box body.

According to some illustrative embodiments, a protective product is provided that includes: at least one expandable slit paper sheet, said at least on expandable slit paper being expanded between opposing ends of said slit paper; a first embossed paper sheet facing said expanded slit paper sheet and a second paper sheet facing an opposite side of said at least one expanded slit paper sheet, at least one of said first embossed paper sheet and said second paper sheet being fixed to said expanded slit paper sheet at the opposing ends of said expanded slit paper sheet and thereby maintaining said expanded paper in its expanded state, said first embossed paper sheet having a plurality of embossings that increase the rigidity of said embossed paper sheet, whereby inhibiting deformation of said embossed paper sheet that is fixed to said expanded slit sheet paper.

The present invention relates to a box forming machine for forming boxes of different shapes and sizes, comprising a forming station including an operating space, demarcated by upper and lower devices and receiving a box during the forming thereof, without horizontal movement of said box; flexible, pressurizable, and heatable glue conduits connected to a plurality of glue application nozzles, configured for being positioned in different positions consistent with the size of the box to be formed, and at least one electrically-operated valve configured for applying said hot glue in respective relative positions of said glue application nozzles with respect to the box, according to operative parameters associated with the dimensions of the box to be formed, including dimensions of upper and lower flaps of said box and at least one working temperature of a hot glue to be applied previously input in a user interface connected to a control device.

A reinforced box for containing a plurality of items to be packaged includes a bottom wall and a top wall, a pair of first side walls and a pair of second side walls. The bottom wall, the top wall and the pair of first side walls are formed from a one-piece elongate element, which extends along a longitudinal axis and is formed with transverse fold lines. The pair of second side walls consists of two separate cardboard panels, and each of the walls is formed with longitudinal creasing lines defining pairs of first and second folded side wings. The pair of second side walls is glued to the bottom wall using a respective second side wing overlapping the bottom wall to reinforce its longitudinal edges. A method of making a box with a reinforced structure is also disclosed.