B32B2327/18

YSZ CERAMIC SUBSTRATE PROTECTED FIREPROOF HOSE
20240401725 · 2024-12-05 ·

A hose is provided capable of meeting fireproof requirements per AS1055 under no flow condition. The hose has multiple layers including a yttria-stabilized zirconia (YSZ) flexible ceramic substrate layer disposed between first and second silicone rubber layers.

Permanent, self-adhering, self-lubricating, anti-wear composite system

An anti-wear composite structure includes an anti-wear layer that has a wear surface opposite an adhesive receiving surface and a thermosetting resin applied to the adhesive receiving surface. The thermosetting resin includes a reactive adhesive configured to bond the anti-wear composite structure to a substrate at an ambient temperature band via pressure-sensitive adhesion. The thermosetting resin has an onset to cure in the ambient temperature band and has a peak cure temperature greater than the ambient temperature band to mechanically and chemically bond the anti-wear composite structure to a substrate.

Plasma sterilization film and plasma sterilization wrapping container
09737091 · 2017-08-22 · ·

A sterilization film is configured to generate atmospheric pressure plasma. The sterilization film includes a flexible dielectric barrier film, upper and lower electrode layers, which are respectively provided on top and bottom surfaces of the dielectric barrier film, and a lower protection layer, which encloses an exposed surface of the lower electrode layer and is formed of a dielectric material. The upper electrode layer includes a thin-plate shaped upper electrode and an upper pad, which is electrically connected to the upper electrode to provide an electrical connection path to an outside. The lower electrode layer includes a lower electrode, which is provided in a porous screen structure with through holes, and a lower pad providing an electrical connection path to the lower electrode. The upper and lower pads are electrically connected to an external power and are used to generate plasma near the porous screen structure.

Dense Articles Formed Tetrafluoroethylene Core Shell Copolymers and Methods of Making The Same

A tetrafluoroethylene (TFE) copolymer film having a first endotherm between about 50 C. and about 300 C., a second endotherm between about 320 C. and about 350 C., and a third endotherm between about 350 C. and about 400 C. is provided. In exemplary embodiments, the third endotherm is approximately 380 C. In some embodiments, the second endotherm is between about 320 C. and about 330 C. or between about 330 C. and about 350 C. TFE copolymer films have a methane permeability less than about 20 g*micron/cm.sup.2/min. In addition, the dense articles have a void volume of less than about 20%. Methods for dense articles from core shell tetrafluoroethylene copolymers are also provided. The dense articles exhibit improved physical and mechanical properties such as adhesion and barrier properties.

PLASMA STERILIZATION FILM AND PLASMA STERILIZATION WRAPPING CONTAINER
20170156379 · 2017-06-08 ·

A sterilization film is configured to generate atmospheric pressure plasma. The sterilization film includes a flexible dielectric barrier film, upper and lower electrode layers, which are respectively provided on top and bottom surfaces of the dielectric barrier film, and a lower protection layer, which encloses an exposed surface of the lower electrode layer and is formed of a dielectric material. The upper electrode layer includes a thin-plate shaped upper electrode and an upper pad, which is electrically connected to the upper electrode to provide an electrical connection path to an outside. The lower electrode layer includes a lower electrode, which is provided in a porous screen structure with through holes, and a lower pad providing an electrical connection path to the lower electrode. The upper and lower pads are electrically connected to an external power and are used to generate plasma near the porous screen structure.

FABRIC HAVING A WATERPROOF BARRIER

Provided herein are ecologically friendly waterproof fabrics that include a base fabric having a body-facing surface and an outward-facing surface, and a hydrophobic, waterproof barrier disposed on the outward-facing surface of the base fabric. The base fabric may be a wicking fabric or may be treated with a compound that enhances wicking, and the hydrophobic, waterproof barrier may include a plastic polymer, polyurethane, polyethylene, and/or polytetrafluoroethylene. The waterproof fabrics also may include an abrasion-resistant coating and/or a PFC-free durable water repellant (DWR) agent disposed on an outward-facing surface of the hydrophobic, waterproof barrier, and one or both of the abrasion-resistant coating and/or PFC-free DWR agent may be discontinuous. Also provided are methods of making a waterproof fabric.

METHOD FOR WATERPROOFING BLANKS OF SHOES, GLOVES, ITEMS OF CLOTHING AND OTHER CLOTHING ACCESSORIES, BLANKS WATERPROOFED WITH THE METHOD, SHOES, GLOVES, ITEMS OF CLOTHING AND OTHER CLOTHING ACCESSORIES PROVIDED WITH THE WATERPROOFED BLANKS

A method for waterproofing blanks of shoes, gloves, items of clothing and other clothing accessories, a blank waterproofed by the method and shoes, gloves, items of clothing and other clothing accessories provided by the waterproofed blanks, the method comprising the gluing and pressing on the surface of the blank, on the side intended to remain hidden after its application, of a waterproof and breathable assembly provided by associating a waterproof and breathable functional element in the form of a flexible sheet with at least two meshes that close it in a sandwich-like manner.

Adhesive Fabrication Process for Garments and Other Fabric Products
20170143059 · 2017-05-25 ·

A process for fabricating a three-dimensional, multi-layered fabric product with a moisture barrier is provided. A partially seamed inner lining fabric assembly having at least a two-dimensional shape is laminated with a membrane barrier film having flaps left un-laminated to cover at least one seam. The inner lining fabric assembly is further seamed and flaps of the of the membrane barrier film overlapped into contact with each other and sealed to provide a continuous moisture barrier. A process for fabricating a stretchable section of a garment with a moisture barrier is also provided. At least a section of a garment is formed from fibers arranged in a pattern having a direction of stretch in one direction and a three-dimensional surface texture such that a portion of the fibers protrude above another portion of the fibers. The stretchable section is stretched in the direction of stretch. Segments of a membrane barrier film are adhered to an outer edge of the protruding portion of the fibers while the section is stretched in the direction of stretch, leaving intermediate segments of the barrier film free from adherence to the section. In this way, the intermediate segments of the membrane barrier film include slack that folds up to form ruches when the section is in a relaxed state.

Dense articles formed from tetrafluoroethylene core shell copolymers and methods of making the same

A tetrafluoroethylene (TFE) copolymer film having a first endotherm between about 50 C. and about 300 C., a second endotherm between about 320 C. and about 350 C., and a third endotherm between about 350 C. and about 400 C. is provided. In exemplary embodiments, the third endotherm is approximately 380 C. In some embodiments, the second endotherm is between about 320 C. and about 330 C. or between about 330 C. and about 350 C. TFE copolymer films have a methane permeability less than about 20 g*micron/cm.sup.2/min. In addition, the dense articles have a void volume of less than about 20%. Methods for dense articles from core shell tetrafluoroethylene copolymers are also provided. The dense articles exhibit improved physical and mechanical properties such as adhesion and barrier properties.

METHOD OF MANUFACTURING METAL SUBSTRATE
20170099739 · 2017-04-06 ·

A metal substrate includes a first insulating substrate, a second insulating substrate, a first metal layer and a second metal layer. The first insulating substrate has a first modified surface and a second surface opposite to the first modified surface. The first metal layer faces the second surface. The second insulating substrate is bonded on the first modified surface, such that the first insulating substrate is between the second insulating substrate and the first metal layer. The second metal layer is disposed on a side of the second insulating substrate, such that the second insulating substrate is between the first modified surface and the second metal layer. An original surface roughness of the first modified surface has a variation substantially less than 10% after the first modified surface is released from the second insulating substrate.