The invention relates to a container precursor comprising a wall, wherein the wall a) surrounds an interior region, and b) comprises a first wall region and a second wall region; wherein the first wall region comprises a first layer sequence comprising a first wall layer, a second wall layer and a third wall layer as overlying layers from the interior region outwards; wherein, in the first wall region, a second carrier layer is characterised by a smaller layer thickness than a first carrier layer, or a third carrier layer, or both; wherein the second wall region comprises a second layer sequence comprising first wall layer, a second wall layer and a third wall layer as overlying layers from the interior region outwards; wherein, in the second wall region, the second wall layer is connected to the third wall layer; wherein, in the second wall region, the third carrier layer is characterised by a larger layer thickness than the first carrier layer, or the third carrier layer, or both. Further, the invention relates to a process for manufacturing a container precursor, a container precursor obtainable through this process, a closed container, a process for manufacturing a closed container, a closed container obtainable through this process, a use of the aforementioned container precursor, and a further use of the aforementioned container precursor.

Systems, methods, and computer-readable media are disclosed for roll-formed containers for shipping. In one embodiment, an example method may include determining, using a first sensor system, a first dimension of a first item, determining a length of packaging material to use for packing the first item based at least in part on the first dimension, and causing a first crease line and a second crease line to be formed on a surface of the packaging material. Some methods may include causing a first side of the packaging material to be folded over the first item, causing a second side of the packaging material to be folded over the first side of the packaging material to form an overlapping portion, and causing ends of the packaging material to be pressed to form a package, where the first item is disposed in the package.

Container for consumer articles, the container being at least partially formed from a laminar blank (100), the laminar blank defining a portion of the container, which includes: a first planar wall (101); a second planar wall (102) connected to the first planar wall by a first modified edge portion (104); and a third planar wall (103) connected to the first planar wall by a second modified edge portion (105). The first modified edge portion is defined by an ablation area, on its inner surface, having one or more ablated lines (201-206) each having a residual thickness less than the thickness (T) of the laminar blank, the first modified edge portion an end portion tapering from a width (W) of the first portion to a point at the junction with the second modified edge portion. The second modified edge portion is defined by a plurality of creasing lines (300).

A collapsible container (200) for a product (202) that may be elastically compressible. The collapsible container design may reduce or prevent damage or permanent deformation of the collapsible container during lacement of a load on the container. The collapsible container includes a plurality of collapsible panels (106A-D) that articulate in a specific manner during placement of a load, resulting in a controlled and temporary partial collapse of the container from an expanded position to a collapsed position. After removal of the load from the collapsible container, the elastically compressible product may decompress and force the collapsible container to expand from the collapsed position back to the expanded position.

A multiple shelf display hutch is provided that can be made from a single die cut blank. The blank comprises three or more vertical panels separated by vertical fold lines, the number of vertical panels equaling the number of sides of the hutch. The hutch may have three sides, four sides, six sides or any suitable number of sides. The layers/shelves may be vertically arranged so that their sides align vertically or may be offset from each other (rotated horizontally with respect to each other) in what may be referred to as twisted configuration.

The invention relates to a container precursor comprising a wall, wherein the wall a) surrounds an interior region, and b) comprises a first wall region and a second wall region; wherein the first wall region comprises a first layer sequence comprising a first wall layer, a second wall layer and a third wall layer as overlying layers from the interior region outwards; wherein, in the first wall region, a second carrier layer is characterised by a smaller layer thickness than a first carrier layer, or a third carrier layer, or both; wherein the second wall region comprises a second layer sequence comprising first wall layer, a second wall layer and a third wall layer as overlying layers from the interior region outwards; wherein, in the second wall region, the second wall layer is connected to the third wall layer; wherein, in the second wall region, the third carrier layer is characterised by a larger layer thickness than the first carrier layer, or the third carrier layer, or both. Further, the invention relates to a process for manufacturing a container precursor, a container precursor obtainable through this process, a closed container, a process for manufacturing a closed container, a closed container obtainable through this process, a use of the aforementioned container precursor, and a further use of the aforementioned container precursor.

Systems, methods, and computer-readable media are disclosed for roll-formed containers for shipping. In one embodiment, an example container for an item may include a rectangular sheet of formable material, the rectangular sheet having a first crease line, a second crease line separated from the second crease line by a distance, a first crease pattern disposed adjacent to the first crease line, and a second crease pattern disposed adjacent to the second crease line. The container may include a sealant disposed about three sides of the rectangular sheet.

A multiple shelf display hutch is provided that can be made from a single die cut blank. The blank comprises three or more vertical panels separated by vertical fold lines, the number of vertical panels equaling the number of sides of the hutch. The hutch may have three sides, four sides, six sides or any suitable number of sides. The layers/shelves may be vertically arranged so that their sides align vertically or may be offset from each other (rotated horizontally with respect to each other) in what may be referred to as twisted configuration.

A packaging sheet for wrapping an article or object, providing structure around the article or object, or forming a box. The packaging sheet includes first, second, third, fourth, and fifth panels, the second panel being connected to the first panel, the third panel being connected to the first panel opposite the second panel, the fourth panel being connected to the second panel opposite the first panel, and the fifth panel being connected to the third panel opposite the first panel. The packaging sheet also includes first, second, third, and fourth flaps connected to the first, second, third and fourth panels, respectively. In some embodiments, a first edge is defined between the third and fifth panels so that the fifth panel is adjoined to the third panel along the first edge, and the fifth panel defines second and third edges along which no flaps are adjoined.

A collapsible container (200) for a product (202) that may be elastically compressible. The collapsible container design may reduce or prevent damage or permanent deformation of the collapsible container during lacement of a load on the container. The collapsible container includes a plurality of collapsible panels (106A-D) that articulate in a specific manner during placement of a load, resulting in a controlled and temporary partial collapse of the container from an expanded position to a collapsed position. After removal of the load from the collapsible container, the elastically compressible product may decompress and force the collapsible container to expand from the collapsed position back to the expanded position.