A package (1) for storing a food product is provided. The package (1) comprises a bottom part (3) formed by a thermoplastic material, a main body (2) formed by a packaging material, wherein the main body (2) is in the form of a sleeve comprising a top section (14) and a base section (12), said base section (12) being connected to the bottom part (3), wherein the top section (14) of the main body (2) is sealed transversally forming a fluid-tight closure of the package (1).

A barrel includes a non-wooden body having a sidewall defining an interior and terminating at a first open end. A flange extends from and about the sidewall adjacent the first end. A first head assembly includes a wooden head removably secured to the body at the first open end to seal the first open end. A first head retainer includes a top wall and a skirt wall extending therefrom and terminating in a securement structure projecting outwardly from the skirt wall. The top wall and skirt wall define a space to receive the first wooden head therein. A plurality of fasteners extends between the securement structure and the flange for securing the first head to the first end to cover the first open end.

Disclosed is a thermal insulating container with a combination inner liner, which includes a cup, surrounded with a storage space and forming an open end. The inner edge of the open end has an inner locking part. An inner liner is surrounded with a bearing space and forms an opening end, wherein the inner liner is fitted in the storage space, and the opening end is provided with a screw thread section. There is a connecting part under the screw thread section. An external member is assembled on the connecting part, and there is an outer locking part on the external surface of the external member. The outer locking part is assembled with the inner locking part of the cup body. A cover has an edge which is a circumferential wall extended downwards, and is provided with a ridge section screwed on/off the screw thread section of the inner liner.

A system of attachable walls includes first and second walls. Each such wall includes a first side having a base surface and a repeatable pattern. The repeatable pattern includes first, second, third, and fourth lateral segments. The second lateral segment includes a resilient first flange extending outward and a flexible finger extending outward. The flexible finger has a first side facing the resilient first flange, a second side, opposite the first, facing away from the resilient first flange and toward the first lateral segment, a first mating component positioned on the second side of the flexible finger, and a receptacle formed between the resilient first flange and the flexible finger. The fourth lateral segment includes a second flange extending away from the base surface of the first side. The second flange includes a second mating component positioned on a side of the second flange facing the third lateral segment.

The claimed invention relates to bi-material dual wall thermally insulated container. The outer wall of the dual wall insulated container is comprised of plastic and can be a decorated plastic product. The inner container is comprised of stainless steel. The inner container is fixed to the outer container creating a gap between the inner and the outer containers.

A grain storage bin includes a cylindrical wall formed by a plurality of panels arranged in rows with a bottom edge of a first row bolted to a top edge of a second lower row. At each joint the bottom edge of the first upper row is overlapped with and outside of the outer surface of top edge of the second lower row and the bottom edge is fastened to the top edge by bolts carrying spacers as to define a first channel along the joint for passage of air. A cover strip overlies the channel and extends from an upper edge of the strip at the inner surface of the first panel above the channel to a lower edge of the strip which is fastened to the top edge so as to define a second channel so that air can pass between the interior and the exterior through the first and second channels while the particulate material is prevented from escaping through the first channel by the cover strip.

The present invention relates to a process for the manufacture of a glass container that comprises the steps of: a) providing a first glass element; b) providing a second element made of a material selected from: glass, ceramic, metal and metallic alloy; said first element and said second element, joined together, defining a containment cavity of said glass container; c) depositing a sealing composition comprising at least one glass frit dispersed in at least one dispersing liquid on at least one surface of at least one of said first element and said second element; d) positioning said first element and said second element in contact with each other so that said sealing composition is arranged between said first element and said second element; e) heating said sealing composition so as to melt said glass frit and form a sealing layer between said first element and said second element. The present invention further relates to a glass container, such as, for example, a bottle, a cup or a jar, and related uses.

Provided is a container including a rigid wall portion having an opening, a flexible wall portion having a corresponding opening coupled to the opening of the rigid wall portion; and a support member coupled to the rigid wall portion configured for providing the container with stability. The rigid wall portion and the flexible wall portion form together a structure configured for holding fluids.

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 foldable storage box has four hard side surfaces in a vertical direction, a soft bottom surface, and a hard support plate that matches the bottom surface and is disposed on the bottom surface. Each of the side surfaces has a non-woven fabric interlayer, and a hard plug board is inserted in the interlayer. At least one pair of the four side surfaces are capable of being folded along a vertical folding axis. Vertical flexible dividing lines are disposed at intersections of the four side surfaces and the vertical folding axis, and the flexible dividing lines confine and isolate the respective hard plug boards in a horizontal direction. The flexible dividing lines are formed by welding two layers of non-woven fabrics in an ultrasonic welding manner.