Bifurcated and split-configuration storage compartments for a vehicle including a first container segment and a second container segment each configured to be secured to the vehicle. The first container segment includes a first body defining a first recessed interior and a first continuous flange or first flange(s) extending from an exterior of the first body and at least partially defining a perimeter of the first recessed interior. The second container segment includes a second body defining a second recessed interior and a second continuous flange or second flange(s) extending from an exterior of the second body and at least partially defining a perimeter of the second recessed interior. The first and second flanges define complementary profiles such that the first and second flanges may be coupled together to form a cavity for storing items or cargo from the first recessed interior and the second recessed interior.

A container (100) includes a first container portion (101) and a second container portion (102). One or both can include an end member (105) and a cylindrical sidewall (103) extending from the end member. The cylindrical sidewall can include a central layer (301), an inner wrap (302), and an outer wrap (303). The central layer and the outer wrap can define one or more axially aligned apertures (304,305). A hang tab (106) defining a loop (107) and one or more socles (307,308) can be inserted through the apertures with the loop disposed exterior of the cylindrical sidewall and the one or more socles disposed between the central layer and the inner wrap.

A container includes a metal end applied and sealed to an all-thermoplastic container body by a crimp-seaming or double-seaming operation. The metal end has an outer curl joined to a chuck wall that extends down from the curl. One or both of the inner surface of the container side wall and the outer surface of the chuck wall has/have a heat-sealable material thereon. The metal end is crimp-seamed or double-seamed to the container body and the heat-sealable material(s) are heated to soften or melt such that the interface between the chuck wall and the side wall is fused. The interface is oriented along a direction relative to internal pressure exerted on the metal end such that stress on the interface caused by the internal pressure is predominantly shear stress.

A storage box is provided. The storage box includes a bottom plate, a top plate, two side plates, a front plate, and a rear plate. The bottom plate, the top plate, the two side plates, the front plate, and the rear plate are detachably connected to each other. The bottom plate and the top plate are disposed in parallel in a height direction of the storage box, the two side plates, the front plate, and the rear plate are disposed between the bottom plate and the top plate to enclose to form a storage space. First clamping structures are respectively disposed at two opposite sides of each of the two side plates, and second clamping structures are respectively disposed at two opposite sides of each of the front plate and the rear plate.

A fully recyclable container and a method of manufacturing the same is provided. The container includes a cap, a shoulder, a body, a base, and a liner. The cap, the shoulder, and the base are made of biodegradable plastic by injection molding while the body is made of waterproof paper. The cap, the shoulder, and the base are detachably connected to form a housing of the container. The liner is formed inside the housing by blow molding of biodegradable plastic. The respective components of the container are completely made of biodegradable or bio-decomposable material and able to be disassembled for sorting and recycling. Thereby the fully recyclable container completely meets requirements of environmental protection and recycling.

Packaging, a packaging blank and a method of forming packaging are described. The specific packaging comprises a base (104); and at least one sidewall (102) projecting from the base (104) and defining with the base (104) a storage volume. The at least one sidewall (102) comprises inner and outer layers (108, 110). Each of the inner and outer layers (108, 110) comprises a line of perforations (112, 114). The lines of perforations (112, 114) of the inner and outer layers (108, 110) are substantially aligned.

A structural component is provided for use in storage systems, bundling systems, transportation systems, or structural installations. The structural component is plate-shaped or shell-shaped and includes at least three sides, where at least two sides are provided with a coupling unit for structurally connecting the structural component to a further component. The coupling unit includes at least one first locking element and at least one correspondingly designed second locking element. For connecting the structural component to the further component, the first and the second locking element are displaceable relative to one another from a release position into a first locking position upon moving the first locking element or the second locking element in a first locking direction and are displaceable relative to one another from the release position into a second locking position upon moving the first locking element or the second locking element in a second locking direction.

A container vessel is described that includes a resiliently deformable wall having a surface area where a majority of the surface area is occupied by a plurality of rigid panes connected by a resilient flexible membrane so that the wall is capable of recovering to an original shape after substantial deformation in either or both a vertical dimension and a horizontal dimension by the application of external pressure and. The primary structural components include: a matrix of rigid panes, each of which is separated by, and connected by, a resilient flexible frame.

A container including a frame having a neck configured to receive a cap. A first side may be attached to the frame by one or more first fasteners. The first side may include a first transparent panel in a first recess. A first seal may be disposed between the first transparent panel and a first raised lip of the frame that extends into the first recess. A second side may be attached to an opposing side of the frame by one or more second fasteners. The second side may include a second transparent panel in a second recess. A second seal may be disposed between the second transparent panel and a second raised lip of the frame that extends into the second recess. The first transparent panel may include a first decorative element embedded therein and the second transparent may include a second decorative element embedded therein.

In a fully recyclable container and a method of manufacturing the same the container includes a cap, a shoulder, a body, a base, and a liner. The cap, the shoulder, and the base are made of biodegradable plastic by injection molding while the body is made of waterproof paper. The cap, the shoulder, and the base are detachably connected to form a housing of the container. The liner is formed inside the housing by blow molding of biodegradable plastic. The respective components of the container are completely made of biodegradable or bio-decomposable material and able to be disassembled for sorting and recycling. Thereby the fully recyclable container completely meets requirements of environmental protection and recycling.