A corrugated box container with a main component including a base section and first and second side sections. The box container additionally includes first and second side support components associated with the first and second side sections for reinforcing the first and second side support sections. The box container further includes a cover component that is capable of engagement with the main component or the first and second side support components, such that the main component and the cover component present a fully enclosed space within the box container. The box container is erected from a knockdown configuration by folding the first and second side sections until the side sections are generally perpendicular with the base section; connecting the first and second side support components with the first and second side sections respectively; and connecting the cover component with the main component or the first and second side support components.

A thermally insulated package 100 for transporting a temperature sensitive payload by unmanned aerial vehicle. The thermally insulated package comprises a payload retention volume 150, at least one layer of insulation 121, 122 surrounding the payload retention volume 150 and an outer casing 110 enclosing the at least one layer of insulation 121, 122 and the payload retention volume 150. The thermally insulated package 100 is shaped to reduce drag in flight by having an aerodynamic shape, particularly in a nose section 130 and optionally a tail section 140. The thermally insulated package 100 may be particularly suitable as a single use packaging for transporting temperature sensitive goods to remote locations. A packaging blank 200 and an unmanned aerial vehicle comprising the thermally insulated package 100 are also disclosed.

A thermally insulated package 100 for transporting a temperature sensitive payload by unmanned aerial vehicle. The thermally insulated package comprises a payload retention volume 150, at least one layer of insulation 121, 122 surrounding the payload retention volume 150 and an outer casing 110 enclosing the at least one layer of insulation 121, 122 and the payload retention volume 150. The thermally insulated package 100 is shaped to reduce drag in flight by having an aerodynamic shape, particularly in a nose section 130 and optionally a tail section 140. The thermally insulated package 100 may be particularly suitable as a single use packaging for transporting temperature sensitive goods to remote locations. A packaging blank 200 and an unmanned aerial vehicle comprising the thermally insulated package 100 are also disclosed.

A telescoping box assembly including an outer box including a plurality of outer side walls and an outer bottom, the plurality of outer side walls defining an outer top edge positioned opposite from the outer bottom, the outer box defining an interior cavity extending from the outer top edge to the outer bottom; an inner box including a plurality of inner side walls and an inner bottom, the plurality of inner side walls defining an inner top edge positioned opposite from the inner bottom, the inner box positioned upside down within the interior cavity with the inner top edge facing the outer bottom; and an access tab covering a corner of the inside bottom and a portion of the outer top edge, the access tab securing the inner box within the interior cavity.

A telescoping box assembly including an outer box including a plurality of outer side walls and an outer bottom, the plurality of outer side walls defining an outer top edge positioned opposite from the outer bottom, the outer box defining an interior cavity extending from the outer top edge to the outer bottom; an inner box including a plurality of inner side walls and an inner bottom, the plurality of inner side walls defining an inner top edge positioned opposite from the inner bottom, the inner box positioned upside down within the interior cavity with the inner top edge facing the outer bottom; and an access tab covering a corner of the inside bottom and a portion of the outer top edge, the access tab securing the inner box within the interior cavity.

A container content apparatus comprises two inserts. Each insert comprises a top portion, a bottom portion, and two side flaps. Each top portion comprises a die cut handle. The apparatus is adapted to be inserted into an inside of a container adjacent to interior walls of the container. An area defined by the inserts is adapted to receive a stack of media. When the inserts are removed via the handles, a gap or space exists between the outer edges of the stack and the interior walls of the container providing automatic alignment of the stack centered on the inside of the container and providing proper alignment to feed the stack directly from the container to an infeed of a printer.

A folding carton includes a tray with a base and at least one side, and a lid including a top at least partially covering the tray. The lid includes two connection tabs that connect to the at least one side. Two corner connection tabs each connect to one of the two connection tabs via a vertical first fold line and configured to connect to a first edge of the top via a horizontal second fold line. The top wall is opened by one of: (1) folding about the horizontal second fold lines between the corner connection tabs and the top; and (2) by folding a tuck-in tongue about a third fold line against an inside of the top and folding the top halves about a fourth fold line in the tuck-in tongue and about the vertical first fold lines between the corner connection tabs and the connection tabs.

A container content apparatus comprises two inserts. Each insert comprises a top portion, a bottom portion, and two side flaps. Each top portion comprises a die cut handle. The apparatus is adapted to be inserted into an inside of a container adjacent to interior walls of the container. An area defined by the inserts is adapted to receive a stack of media. When the inserts are removed via the handles, a gap or space exists between the outer edges of the stack and the interior walls of the container providing automatic alignment of the stack centered on the inside of the container and providing proper alignment to feed the stack directly from the container to an infeed of a printer.

A method and system are disclosed for forming a can from a re-configurable blank. A blank is also disclosed that may be a paper based blank and may be of multi-layer construction. The method may comprise: (a) supporting the blank in a first orientation; (b) positioning a first portion of an outward facing surface of a blank support device proximate a first portion of the blank while the blank is in the first orientation; (c) while the first portion of the blank is in the first orientation, rotating a second portion of the blank around a second portion of the outward facing surface of the blank support device; and (d) rotating a third portion of the blank from the first orientation, around a third portion of the outward facing surface of the blank support device. A generally tubular side wall may thus be formed for a can.

A display system for containing and displaying product includes a tray portion and a hood portion. The tray portion includes a bottom panel, and the hood portion includes a top panel and at least one glue flap panel disposed adjacent to the top panel. The display system is convertible from a shipping configuration in which the tray and hood portions cooperate to form an enclosed carton, into a display configuration in which the hood portion is separated completely from the tray portion. The display system is configured to be transitioned from the shipping configuration to the display configuration by breaking an adhesive connection between the at least one glue flap panel and the tray portion and lifting the hood portion away from the tray portion.