This invention relates to a pallet bag system for bags enclosing items, pallets loaded with bags containing items, and containers containing such loaded pallets.

Food preservation can include depositing dry ice and food within packaging. The packaging can include a flexible liner defining a wall aperture and an internal chamber. The internal chamber can receive the deposited dry ice and food and have an internal atmosphere. The packaging can include a check valve mounted to the flexible liner and covering the wall aperture. The check valve can be configured to occupy: (i) a closed state blocking fluid communication between the internal chamber and ambient via the wall aperture and (ii) an open state enabling fluid flow from the internal chamber, through the wall aperture, and into ambient.

An assembly may include a shelf-stable pouch for fruits or vegetables. The assembly may comprise a pouch having a closed condition and an open configuration. The closed configuration may be configured to seal portions of at least one of the fruits and vegetables and brine prior to heating the pouch for pasteurization. The open condition may allow for the removal and serving of the portions after pasteurization from heating.

A high barrier packaging film has an outer layer of a high molecular polymer or a spunbond nonwoven fabric comprising a high molecular polymer, a passive barrier layer of the same high molecular polymer with nanoparticles of bentonite clay dispersed therein, an active barrier layer of the same high molecular polymer with desiccant particles dispersed therein, and a lamination layer of the same high molecular polymer. The outer layer, passive barrier layer and active barrier layer are compound laminated with the lamination layer to form the high barrier packaging film. Because the layers are all formed of a same polymer, such as polyethylene, and because there are no metal components in the layers used to create the film, the high barrier packaging film is readily recyclable.

A system for conserving oxygen and other gasses supplied to a recipient. A supply conduit supplies gas from a source to a reservoir, which retains a volume of gas at ambient pressure. A conduit supplies gas from the reservoir to the recipient, and an inflation detection system detects when the reservoir is below a state of inflation and when the reservoir is inflated to the state of inflation. A valve system prevents gas from flowing from the source and into the reservoir when the reservoir is at the predetermined state of inflation, and the valve system permits gas to flow from the source and into the reservoir when the reservoir is below the predetermined state of inflation whereby gas within the reservoir can be continually replenished without pressurization above ambient pressure. The inflation detection system can be an electro-mechanical system. Alternatively, the inflation detection system can be a contactless system.

A sealable enclosure is disclosed that is configured to enclose an object that is to be heated, wherein heating of the sealable enclosure with the object sealed therein permits gas generated by the heating to vent out through a first micro-pore portion disposed in a fold of film layer. Initially, the generated gas is retained in the sealable enclosure. When the temperature of the strip of heat sensitive adhesive reaches a threshold temperature, the strip of heat sensitive adhesive releases so that fold opens, wherein the gas vents through the micro-pore portion disposed in the film layer out into an ambient region surrounding the sealable enclosure while preventing ambient contaminates in the ambient region from entering into the sealable enclosure.

The disclosure relates to a header bag for packaging at least one medical device, including at least one sheet configured to be sealed to form an enclosure for the at least one medical device, the at least one sheet including at least an inner layer and an outer layer, the inner and outer layers being impervious to gas so that a vacuum can be created in a volume extending between the inner and outer layers, wherein the header bag further includes a pressure sensor arranged between the inner and outer layers and an RFID tag configured to communicate with the pressure sensor.

Food preservation can include depositing dry ice and food within packaging. The packaging can include a flexible liner defining a wall aperture and an internal chamber. The internal chamber can receive the deposited dry ice and food and have an internal atmosphere. The packaging can include a check valve mounted to the flexible liner and covering the wall aperture. The check valve can be configured to occupy: (i) a closed state blocking fluid communication between the internal chamber and ambient via the wall aperture and (ii) an open state enabling fluid flow from the internal chamber, through the wall aperture, and into ambient.

A packaging device including a breathable or non-breathable, microwavable composite film structure in the form of a bag, a tray or other type of container is disclosed. The device may include atmospheric control attributes in the form of microperforations, and steam venting mechanisms in the form of precision cuts or channels. The microperforations may form atmospheric conditions within the device for the storage of perishable and/or respiring food products, and the steam venting mechanisms may regulate the pressure and/or heat within the device during microwave cooking of the food products within.

The present invention relates to a bags-in-bag packaging system, wherein the inner bags (2) are made of biodegradable and/or compostable packaging material. Good storage stability and long shelf-life is achieved even if the inner bags (2) enclose an oxidable compound such as vitamin A. The inner bags (2) are preferably single-serve sachets comprising sufficient vitamins and minerals for effectively fight micronutrient deficiency.