A folding apparatus is provided to be positioned adjacent a conveyor along which product having a flexible film wrapper wrapped about the product moves adjacent the folding apparatus such that the folding apparatus effects the folding of a first flap of the wrapper. The folding apparatus comprises a passive folding device comprising a first passive folding member defining a first passive folding surface adapted to engage the first flap as the product and the film wrapper move in a machine direction and folding the first flap from a first position away from the product to a second position adjacent the product.

The present invention refers to a device for packaging visual communication boards and to the respective packaging method, characterized by a set of at least nine sections that comprises feeding the boards (1); fitting the lateral and upper profiles (2), cleaning of the boards (3); placing of the boards in the packaging material (4) and the positioning of the packaging material, the distribution of the bonding product on the surface of the packaging material and the placing of tops on the packaging material (5); executing the bonding of the referred tops on the packaging material; folding the packaging material and package seal (6); sealing the packaging material (7), labelling the package (8); control and wrapping (9) or palletization of the final product.

The present invention refers to a device for packaging visual communication boards and to the respective packaging method, characterized by a set of at least nine sections that comprises feeding the boards (1); fitting the lateral and upper profiles (2), cleaning of the boards (3); placing of the boards in the packaging material (4) and the positioning of the packaging material, the distribution of the bonding product on the surface of the packaging material and the placing of tops on the packaging material (5); executing the bonding of the referred tops on the packaging material; folding the packaging material and package seal (6); sealing the packaging material (7), labelling the package (8); control and wrapping (9) or palletization of the final product.

The packaging material includes a packaging material body formed into a sheet shape as a whole by welding two film sheets having an upper sheet and a lower sheet together at appropriate points; an air introduction path having the packaging material body, one side thereof serving as an air introduction port and the other side sealed; a plurality of air bags having the packaging material body while being in communication with the air introduction path, and extending in a direction orthogonal to the air introduction path; and check valves provided to respective air inlets of the plurality of air bags and preventing escaping of air having been introduced through the air introduction port and introduced into the air bags through the air inlets. The packaging material body is bent and welded at appropriate points, whereby a packaging bag for storing a packaged object is provided.

A non-destructive, non-invasive method for inspection of bonding patterns of packages for products, such as patches or medicated patches, involves thermally probing the packages and the bonding patterns and retrieving a thermal response thereof. The inspection is based in the analysis of the thermal response.

A fluid dispensing container is provided. The container includes a container body formed from a first flexible material defining an interior cavity. The container includes a membrane formed from a second flexible material and a seal coupling the membrane to the inner surface of the container body. The membrane divides the interior cavity into a contents chamber and a dispensing chamber, and the membrane and the seal are configured to be fluid tight to maintain fluid within the contents chamber prior to rupture of the membrane. The rupture stress of the second flexible material is less than the rupture stress of the first flexible material such that, as fluid pressure within the contents chamber increases, the membrane is configured to rupture without the container body rupturing.

A fluid dispensing container is provided. The container includes a container body formed from a first flexible material defining an interior cavity. The container includes a membrane formed from a second flexible material and a seal coupling the membrane to the inner surface of the container body. The membrane divides the interior cavity into a contents chamber and a dispensing chamber, and the membrane and the seal are configured to be fluid tight to maintain fluid within the contents chamber prior to rupture of the membrane. The rupture stress of the second flexible material is less than the rupture stress of the first flexible material such that, as fluid pressure within the contents chamber increases, the membrane is configured to rupture without the container body rupturing.

A packaging for sterile packaging application includes: a single layer nonwoven fabric obtained from a nonwoven, the nonwoven including meltblown polymer fibers having an average fiber diameter between 2 μm to 10 μm and a standard deviation of the fiber diameter of at least 100%. The nonwoven is thermally bonded.

A packaging for sterile packaging application includes: a single layer nonwoven fabric obtained from a nonwoven, the nonwoven including meltblown polymer fibers having an average fiber diameter between 2 μm to 10 μm and a standard deviation of the fiber diameter of at least 100%. The nonwoven is thermally bonded.

The present invention relates to inkjet printable twist and/or fold wrap film for packaging applications, to inkjet printed twist and/or fold wrap film for packaging applications, to packaging including said inkjet printable or inkjet printed twist and/or fold wrap film, the use of the inkjet printable or inkjet printed twist and/or fold wrap film for as well as to the method of making a filled packaging.