A multifunctional valve features an injection function, a vacuuming function, a devacuuming function with fast and slow mode, and a pressure regulating function. The valve can be implemented on any sealingly closed container having a removable lid or a bag having a resealable zipper or any other similar sealable feature. The valve also features a tethered plug with a latch system to secure it in place to additionally provide sealing. The valve is incorporated into a container with a removable lid for microwave pressure cooking. The same valve is incorporated into a plug to close an opening on a barrel.

A paper sack for bulk material such as cement, gypsum, granulate, animal feed or similar, having a base, preferably a cross bottom or block bottom, and having an upper part which is disposed opposite the base and in which a valve tube is optionally arranged for filling the paper sack, wherein the paper sack has at least one paper layer having an overlap which is sealingly adhesively bonded toward the sack interior; and wherein the layer of the paper layer facing the sack interior has an air-permeable region in the region of the overlap which is covered by the layer of the paper layer facing the sack exterior. The at least one paper layer at least regionally has a water-repellent/water-tight coating facing the sack exterior.

A hazardous drug deactivation wipe kit includes a first pouch having a one-way valve coupled to an end thereof, a second pouch, and a third pouch. The first pouch contains a wipe saturated in a hypochlorite solution, the second pouch contains a wipe saturated in thiosulfate solution, and the third pouch contains a wipe saturated in isopropyl alcohol solution. The deactivation wipe kit may be used in a clean room to deactivate most hazardous drugs on a work surface.

A flexible laminate for a package is described that includes an integrated one-way valve that allows gas generated within the package (e.g., carbon dioxide outgas) to be released to the external environment, while at the same time preventing environmental elements from entering the package. The valve is defined by the layers that form the flexible laminate, as opposed to being a separate structure that is attached to the flexible laminate. In particular, first and second cut lines are defined in a valve area of the first and second film layers of the flexible laminate structure in an offset manner. Oil is pattern-applied to one or both film layers in the valve area, and an opposing surface of one or both of the film layers further includes a surface treatment that decreases the amount of surface energy between the film layers to allow the valve to open at the desired pressure.

The present invention is a method and an apparatus for packaging lyophilized implants and other medical devices. In accordance with the invention, a lyophilized implant may be packaged for delivery to the surgical site in a sealed, flexible/expandable, sterile inner pouch. The inner pouch may be further packaged within an outer, sterile package. The inner pouch contains a resealable port through which rehydration liquid may be introduced into the inner pouch without opening the inner pouch. The inner pouch may be made of a flexible, substantially non-stretchable material so that the pouch can expand only to a predetermined maximum size to accept a predetermined volume of rehydration liquid. After rehydration, any excess rehydration liquid within the pouch may be removed via the same port. Next, the pouch is opened via a second opening to expose the implant for removal from the package.

Provided is a hybrid-construct bag, comprising a bag body formed by at least a first sheet, the bag body having: a substantially tubular main body portion, a first end portion, a second end portion, a valve section formed at the first end portion and configured to form the channel between the top and bottom walls which are included in the valve section, and a patch section, wherein the main body portion, first end portion and second end portion cooperatively form a cavity operable to receive contents. There are a plurality of perforations formed in the main body portion and used for allowing a gas to pass though and resisting a liquid and/or particulates to pass though. A method of forming the hybrid-construct bag is also disclosed.

The present invention relates to a paper sack for bulk material such as cement, gypsum, granulate, animal feed or similar, having a base, preferably a cross bottom or block bottom, and having an upper part which is disposed opposite the base and in which a valve hose is optionally arranged for filling the paper sack, wherein the paper sack has a coated paper layer, having a gas-tight coating facing the sack interior, wherein the coating forms the surface of the inner wall of the paper sack contacting the filling material, and wherein the coated paper layer has an overlap which is sealingly adhesively bonded toward the sack interior, and wherein the layer of the coated paper layer facing the sack interior has perforations in the region of the overlap which are covered by the layer of the coated paper layer facing the sack exterior.

An apparatus for storing articles comprises one or more vacuum-sealable storage bags and a container. The one or more vacuum-sealable storage bags are configured for storing the articles therein. The container configured for storing the one or more vacuum-sealable storage bags therein. The container has soft sides made of soft materials. In operation, when air within the one or more vacuum-sealable storage bags is evacuated, the one or more vacuum-sealable storage bags, and any articles stored therein, collapses into the container.

In a package bag having a package bag body formed by joining laminate films each including a base film layer and a sealant layer through fusion of the opposed sealant layers and a film-shaped pouring nozzle having a self-sealing function formed by fusion-joining laminate films each including front and rear sealant layers sandwiching a base film layer at their peripheral portions other than base end portions wherein the base end portion of the film-shaped pouring nozzle is fusion-joined to a top of the package bag body, the film-shaped pouring nozzle is constructed with an inclined part located at a side of the base end portion so as to protrude from an upper end portion of the package bag body obliquely upward in a direction of a side portion thereof and a horizontal part connected to a side of a free end portion of the inclined part.

There is provided a method of making white sack paper having a grammage of 50-140 g/m2 and a Gurley porosity (ISO 5636/5) of 2-10 s, comprising the steps of: a) providing bleached pulp, such as bleached sulphate pulp; b) subjecting the pulp to high consistency (HC) refining and optionally low consistency (LC) refining to the extent that the sack paper obtains the Gurley porosity; c) adding cationic polymer, such as cationic starch, to the pulp in an amount of 1.5-5.0 kg/ton paper; and d) adding size to the pulp in an amount of 0.4-2.0 kg/ton paper; and e) forming the sack paper from the pulp, wherein less than 2 kg/ton paper of anionic starch is added to the pulp.