Cryovac, Inc.

David Ray Kyle

Marc Alan Edlein

Drew V Speer

Marvin Russell Havens

Steven T Calvert

Mendy J Mossbrook

Hillary Crawford

David Herndon

Milissa Smith

An additive delivery laminate, suitable for cooking a food product and transferring a colorant, flavorant, and/or odorant to a food product, has an additive delivery layer comprising a thermoplastic layer and water-soluble granules containing a food additive. The laminate further comprises a substrate layer to which the additive delivery layer is bonded. The additive delivery layer is placed in contact with the food product to be packaged, with the granules thereafter dissolving and the additive being transferred to the food product. The additive can be transferred during cook-in or otherwise. Also disclosed is a process for preparing the additive delivery laminate and a process for preparing a packaged food product.

Additive delivery laminate, process for making and using same and article employing same

The invention is a UV sensitive composition that undergoes a color change upon exposure to a predetermined dosage of UV-C radiation. The UV-C sensitive composition comprises a halogenated polymer, such as polyvinylidene chloride, that produces an acid upon exposure to UV radiation, and a pH sensitive dye. Upon exposure to UV-C radiation, the halogenated polymer undergoes degradation and produces HCl. The pH sensitive dye changes color as a result in an increase in HCl in the system. The composition may also include an acid scavenging composition and/or a diluent to control the amount of HCl produced in the system. The amount of HCl liberated from UV-C exposure may be selectively controlled so that a color change may be produced at a desired UV-C dosage. In some embodiments, the composition may be used to indicate a UV-C dosage from about 100 to 1600 mJ/cm.

UV-C sensitive composition and dosimeter

A packaged food product includes a food product and a package enclosing the food product. The package may be formed from a coated, printed film that includes a substrate film including one or more thermoplastic materials and having an average thickness of less than about 15 mils. An image is printed on the print side of the substrate film. A radiation-cured varnish covers the printed image. The radiation-cured varnish was formed by coating the printed image with a radiation-curable varnish that includes one or more polymerizable reactants and optionally one or more photointiators. The radiation-curable varnish is subsequently exposed to radiation sufficient to polymerize at least 90 weight % of the polymerizable reactants. When the coated, printed film is tested according to the FDA migration test protocol, no more than 50 parts per billion total of any of the polymerizable reactants and the optional photoinitiators migrate within 10 days at 40&#xb0; C. from the coated, printed film into a food simulant of 95 weight % ethanol and 5 weight % water enclosed within a test container formed from the coated, printed film so that the food simulant contacts the food side of the substrate film and the ratio of volume of food simulant to surface area of coated, printed film is 10 milliliters per square inch.

Printed thermoplastic film with radiation-cured overprint varnish

A printed packaging material and a method for making the same is described. On a primary surface of a thermoplastic flexible packaging material is disposed a printed image. That image includes two primary components. The first is at least one marking containing a pigment. The second is a pigment-free coating which overlies the outermost marking. The coating is made from materials which can polymerize and/or crosslink when exposed to ionizing radiation. After the film is exposed to such radiation, the coating hardens to form a protective layer over the printed markings.

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Moore, SC, United States of America

David Ray Kyle