Abstract: A decorative laminate is manufactured in accordance with the method comprising preparing a decorative layer composed of a resin impregnated decorative sheet and preparing a core layer including an upper core sheet and a lowermost core sheet. The upper core sheet is prepared by impregnating a first paper with a resin. The lowermost core sheet is prepared by treating a second paper with sodium alginate to produce a sodium alginate treated paper and then impregnating the sodium alginate treated paper with resin. The decorative layer and the core layer are stacked. The decorative layer and the core layer are consolidated under heat and pressure to form the decorative laminate.

Abstract: A decorative laminate is manufactured in accordance with the method comprising preparing a decorative layer composed of a resin impregnated decorative sheet and preparing a core layer including an upper core sheet and a lowermost core sheet. The upper core sheet is prepared by impregnating a first paper with a resin. The lowermost core sheet is prepared by treating a second paper with sodium alginate to produce a sodium alginate treated paper and then impregnating the sodium alginate treated paper with resin. The decorative layer and the core layer are stacked. The decorative layer and the core layer are consolidated under heat and pressure to form the decorative laminate.

Abstract: A printed laminate includes a substrate and a priming layer positioned over the substrate, wherein digital printing is applied to the priming layer. A top coat layer is applied over the digital printing and the priming layer, the top coat layer being composed of a clear hot melt polyurethane first top coat layer and a clear UV cured acrylic second top coat layer.

Abstract: A method for preparing one or more lubricated surfaces of an article to reduce the break-out force and sliding frictional force. A lubricant is applied to one or more surfaces, and the lubricant-coated surface is treated by exposing the surface to an energy source, wherein the energy source is an ionizing gas plasma at about atmospheric pressure, gamma radiation, or electron beam radiation. One or more of the surfaces may be exposed to the ionizing gas plasma at about atmospheric pressure prior to application of the lubricant. Another aspect of the invention is articles produced using one or more methods of the invention.

Abstract: A method for preparing one or more lubricated surfaces of an article to reduce the break-out force and sliding frictional force. A lubricant is applied to one or more surfaces, and the lubricant-coated surface is treated by exposing the surface to an energy source, wherein the energy source is an ionizing gas plasma at about atmospheric pressure, gamma radiation, or electron beam radiation. One or more of the surfaces may be exposed to the ionizing gas plasma at about atmospheric pressure prior to application of the lubricant. Another aspect of the invention is articles produced using one or more methods of the invention.

Abstract: A method for preparing one or more lubricated surfaces of an article to reduce the break-out force and sliding frictional force. A lubricant is applied to one or more surfaces, and the lubricant-coated surface is treated by exposing the surface to an energy source, wherein the energy source is an ionizing gas plasma at about atmospheric pressure, gamma radiation, or electron beam radiation. One or more of the surfaces may be exposed to the ionizing gas plasma at about atmospheric pressure prior to application of the lubricant. Another aspect of the invention is articles produced using one or more methods of the invention.

Abstract: A method for preparing one or more lubricated surfaces of an article to reduce the break-out force and sliding frictional force. A lubricant is applied to one or more surfaces, and the lubricant-coated surface is treated by exposing the surface to an energy source, wherein the energy source is an ionizing gas plasma at about atmospheric pressure, gamma radiation, or electron beam radiation. One or more of the surfaces may be exposed to the ionizing gas plasma at about atmospheric pressure prior to application of the lubricant. Another aspect of the invention is articles produced using one or more methods of the invention.

Abstract: A method for preparing one or more lubricated surfaces of an article to reduce the break-out force and sliding frictional force. A lubricant is applied to one or more surfaces, and the lubricant-coated surface is treated by exposing the surface to an energy source, wherein the energy source is an ionizing gas plasma at about atmospheric pressure, gamma radiation, or electron beam radiation. One or more of the surfaces may be exposed to the ionizing gas plasma at about atmospheric pressure prior to application of the lubricant. Another aspect of the invention is articles produced using one or more methods of the invention.

Abstract: A method for preparing one or more lubricated surfaces of an article to reduce the break-out force and sliding frictional force. A lubricant is applied to one or more surfaces, and the lubricant-coated surface is treated by exposing the surface to an energy source, wherein the energy source is an ionizing gas plasma at about atmospheric pressure, gamma radiation, or electron beam radiation. One or more of the surfaces may be exposed to the ionizing gas plasma at about atmospheric pressure prior to application of the lubricant. Another aspect of the invention is articles produced using one or more methods of the invention.

Abstract: A medical article is molded from a silane-grafted polyolefin copolymer and crosslinked to have improved compression set and sealability so that the crosslinked article can be sterilized with substantially no changes in size or shape.

Abstract: A process for making a closure assembly includes placing a closure cap portion in a compression mold, introducing a melt of elastomer, pressing the melt into a septum against the cap and applying a foil barrier against the septum. The process may be performed in a rotary compression molding apparatus.

Abstract: The present invention is a collection container assembly comprising a container having a microporous partition so as to reduce the internal volume of the container wherein the external dimensions of the container are substantially the same as a standard-sized blood collection tube but with a reduced internal volume.

Abstract: A method for sequentially depositing a barrier composition film as a barrier on a substrate. The film is useful for providing an effective barrier against gas permeability in containers and for extending shelf-life of containers, especially plastic evacuated blood collection devices.

Abstract: A medical article of a polymeric nonthermoplastic material and method therefor is made by a continuous compression molding method in which a predetermined quantity of the polymer is added sequentially to a series of molds on a track.

Abstract: Syndiotactic polypropylene is blended with isotactic polypropylene and the blend melt processed into medical articles. The blends have molding cycle times which are up to 12 times shorter that for pure syndiotactic polypropylene.

Abstract: A method for sequentially depositing a silicon oxide based film as a barrier on a substrate. The film is useful for providing an effective barrier against gas permeability in containers and for extending shelf-life of containers, especially plastic evacuated blood collection devices.

Abstract: Syndiotactic polypropylene is blended with isotactic polypropylene and the blend melt processed into medical articles. The blends have molding cycle times which are up to 12 times shorter that for pure syndiotactic polypropylene.

Abstract: An irradiated plastic article of reduced gas transmission has a coating of silicon oxide on a surface thereof. A method to reduce gas transmission through a plastic article includes depositing a coating of silicon oxide thereon and irradiating, either prior to or subsequent to depositing the silicon oxide.

Abstract: A molding process for syndiotactic polypropylene includes holding the melt at a process temperature of about 27.degree. to 77.degree. C. to achieve a cycle time of less than 150.degree. C. and a haze value for a 2 mm thick article of less than 38%.

Abstract: An irradiated plastic article of reduced gas transmission has a coating of silicon oxide on a surface thereof. A method to reduce gas transmission through a plastic article includes depositing a coating of silicon oxide thereon and irradiating, either prior to or subsequent to depositing the silicon oxide.