A conveyor of a cardboard-folding station receives a cardboard blank having a first portion, first and second lateral closing walls hinged thereto and facing upstream and downstream, respectively, an upper closing wall hinged to the second lateral closing wall and facing downstream, a third and a fourth lateral closing wall hinged and partly raised with respect to the first portion and projecting from sides of the conveyor. An article rests on the first portion, with four flanks or the article respectively facing the four lateral closing walls of the blank. At a first folding zone the third and fourth lateral closing walls are folded to cover the third and the fourth flanks of the article, and at a second folding zone the second lateral closing wall and the upper closing wall are folded to cover the article's second flank and its upper face.

A machine for folding and adhesively bonding blanks for the production of folding boxes. It includes a transport system which has at least one puller which wraps around deflecting rollers and extends along a processing path, a drive connected to a deflecting roller and drives the deflecting roller. Workpiece carriers are fastened to the puller and are moved along the processing path by the at least one puller. It also includes a magazine for a stack of blanks, a mechanism for removing individual blanks from the stack in the magazine, a feeding mechanism for the removed blanks to the workpiece carriers, structure for retaining blanks on the workpiece carriers, a control which is connected to the structure to retain blanks, and structure for adhesively bonding blanks.

A machine for folding and adhesively bonding blanks for the production of folding boxes. It includes a transport system which has at least one puller which wraps around deflecting rollers and extends along a processing path, a drive connected to a deflecting roller and drives the deflecting roller. Workpiece carriers are fastened to the puller and are moved along the processing path by the at least one puller. It also includes a magazine for a stack of blanks, a mechanism for removing individual blanks from the stack in the magazine, a feeding mechanism for the removed blanks to the workpiece carriers, structure for retaining blanks on the workpiece carriers, a control which is connected to the structure to retain blanks, and structure for adhesively bonding blanks.

A carton has an automatically erected bottom that securely closes the bottom of the carton. In one embodiment, the carton blank has two major side panels and two minor side panels serially connected. The carton blank has two bottom flaps which form the bottom of the carton. Each bottom flap is connected to one of the major side panels and one of the minor side panels. The carton blank avoids the erecting and forming issues associated with prior art carton blanks which have an automatically erected bottom.

A device for forming a container by folding a cardboard sheet having a lid and notably a tab. The forming device comprising a conveyor driving said cardboard sheet in a direction of travel and a device for folding over said lid. The folding-over device comprises a pressing surface for pressing on said lid, and the pressing surface is configured to move from an initial position toward a deployed position of folding said lid, and vice versa. The said pressing surface is mobile in said direction of travel, and comprises an endless belt motorized in said direction of travel.

A device for forming a container by folding a cardboard sheet having a lid and notably a tab. The forming device comprising a conveyor driving said cardboard sheet in a direction of travel and a device for folding over said lid. The folding-over device comprises a pressing surface for pressing on said lid, and the pressing surface is configured to move from an initial position toward a deployed position of folding said lid, and vice versa. The said pressing surface is mobile in said direction of travel, and comprises an endless belt motorized in said direction of travel.

An insulated container may include a rigid container surrounding an insulation layer formed from a post-industrial, pre-consumer card waste. The insulation layer may be characterized by a lack of any wrapping material. The insulation layer may be manufactured using a variety of converting processes including, carding, airlay, and needle punch to form a non-woven material for providing consistent density throughout the insulation layer. The insulation layer may include a natural fiber lamination layer on an outer surface of the insulation layer. The insulation layer may be biodegradable in an anaerobic environment.

An insulated container may include a rigid container surrounding an insulation layer formed from a post-industrial, pre-consumer card waste. The insulation layer may be characterized by a lack of any wrapping material. The insulation layer may be manufactured using a variety of converting processes including, carding, airlay, and needle punch to form a non-woven material for providing consistent density throughout the insulation layer. The insulation layer may include a natural fiber lamination layer on an outer surface of the insulation layer. The insulation layer may be biodegradable in an anaerobic environment.

The package includes a front panel, a back panel opposing the front panel, the back panel defining at least one first cut line in a semi-circular shape at an upper portion of the back panel, a bottom panel forming a lower end of the package, a first side panel forming a first side of the package, a second side panel forming a second side of the package, and an upper panel forming a top end of the package. The first cut line is configured to form a tear line on an outermost surface of the package, the tear line being configured to be torn to open the top end of the package. The blank is capable of being assembled into the package. The method includes providing a blank, and assembling the package from the blank.

The package includes a front panel, a back panel opposing the front panel, the back panel defining at least one first cut line in a semi-circular shape at an upper portion of the back panel, a bottom panel forming a lower end of the package, a first side panel forming a first side of the package, a second side panel forming a second side of the package, and an upper panel forming a top end of the package. The first cut line is configured to form a tear line on an outermost surface of the package, the tear line being configured to be torn to open the top end of the package. The blank is capable of being assembled into the package. The method includes providing a blank, and assembling the package from the blank.