The present invention provides a container forming apparatus, a container forming method, a container, and an instant food packaging method using the container. The container forming apparatus, which is a container forming apparatus for forming a container by thermoforming, comprises: a bottom forming part for forming the bottom portion of the container; a side forming part extending upwardly inclined from the bottom forming part and configured to form a part of the side portion of the container; a first form part configured to rise upward and pressurize the container to separate and take out the formed container; and a second form part disposed outside the first form part and configured to form the remaining parts of the container except the part of the side portion.

An apparatus for manufacturing a stick container having a pair of filler accommodating parts by processing a sheet-shaped material, the apparatus comprises: a lengthwise sealing unit that bonds side surfaces of the material to each other in order for the material to have an internal space which is elongated in a lengthwise direction; a widthwise sealing unit that bonds the material to separate the internal space along the lengthwise direction; and a filling unit that is configured to fill a first filler and a second filler in the separated internal spaces, respectively, wherein the widthwise sealing unit includes: a top and bottom surface sealing unit that bonds a bottom surface of the stick container where the first filler is to be filled and bonds a top surface of the stick container where the second filler has been injected; and a separation surface sealing unit that bonds a central portion of the stick container after the first filer is filled and before the second filler is filled.

An apparatus for thermally processing food products in sealed packages comprises heating/cooling chambers with an endless conveyor guided through them with product carriers connected thereto. Each product carrier 10 comprises insertion spaces 17 for packages 27 to be placed in. A side wall 11 of the carrier 10 comprises slits 20 which open out towards insertion openings of the respective insertion spaces 17. Operating members are provided which comprise load bearing organs 32 with operable holding means 33 for picking up and carrying packages 27. The load bearing organs 32 are movable in an insertion direction x while projecting through the slits 20 during placing of packages 27 into the insertion spaces 17.

Multi-layer collation shrink film comprising a main layer based on a polyethylene mixture comprising 75 to 85 wt.-% low density polyethylene and 15 to 25 wt.-% high density polyethylene or linear low density polyethylene and a skin layer based on a polar ethylene copolymer with vinyl acetate or alkyl (meth)acrylate with a vinyl acetate or alkyl (meth)acrylate content of at least 15 wt.-% and containing 5000 to 20000 ppm silica and a slip agent, use of the film in multi-layer packaging films and method for packaging objects together with the multi-layer collation shrink film including printing the skin layer with a digital ink printing process before or after packaging the objects.

Method for processing hot-filled plastic containers are provided. In some embodiments, the method may include hot-filling a plastic container, sealing the container, and conveying the sealed container, each with an inner annular wall and a push-up portion in a first position. In some embodiments, the method may further include creating a vacuum pressure in the hot-filled and sealed container and repositioning the push-up portion from the first position to a second position under a mechanical force.

Methods, apparatuses and systems for sealed dimpled film packages. A vacuum box having apertures, a dimpled bottom film sheet is placed on the base plate and an item to be packaged can be placed on the bottom dimpled film sheet. A top film sheet in a clamp frame is heated to a processing temperature and lowered towards the item and dimpled bottom film sheet. Vacuum suction causes sealing of the clamped top film sheet against the package from the base to the perimeter extending at an angle more than 5 degrees. The top film sheet is pulled down using the vacuum suction into contact with the dimpled film sheet from the base perimeter on the dimpled film sheet outward toward the perimeter of the dimpled film sheet forming a seal.

The present invention discloses a new method of packing and preserving fruits in liquid (fruit juice, syrup, water, etc). The method comprises packaging fruits, where the fruit is filled into a specifically formulated plastic container, topped with liquid, dosed with inert gases to enforce can integrity, seamed with metal can ends, and thermally processed to eliminate viable microorganisms. The process is unique in that by adjusting thermal processing parameters and manipulating the seam specifications, replacing the metal cans by a flexible and sustainable plastic can, becomes a practical alternative.

Provided are a method and an apparatus for extruding into a tube and filling the tube at a high speed and simultaneously sealing the tube. Specifically provided is a method for producing a polymer tube, containing a liquid therein and being sealed at constant intervals, the method including an extrusion step of continuously melt-extruding a polymer material through a die into at least one tube, while feeding a liquid into the tube to obtain at least one liquid-containing tube; and sealing step of discontinuously pressing the at least one liquid-containing tube between a pair of pressurizing members at constant intervals to cause pressure-bonding before the tube solidifies, while continuously taking up the extruded tube.

Container assemblies are described herein that include a metal closure and a container including a plastic finish. The container assemblies may be characterized by improved performance including reproducibility of force needed to remove the closure. Furthermore, the container assemblies described herein may be compatible for use with hot-fill packaging processes.

A packaging method and packaging material are disclosed. In accordance with one aspect, a method for forming, filling, sealing and flash freezing a liquid extract or concentrate in a continuous ribbon format is described. The packaging material uses a continuous ribbon of a cold-formed foil base with multiple pockets arrayed in a pattern and a heat-sealed foil cover. Following sealing, the continuously formed strip of product is passed through a freezing medium, optionally perforated alongside the pockets to facilitate separation of individual pockets from a sheet, and then cut to size for convenient and space efficient final packaging, storage and transportation.