Owens Corning Fiberglas Technology, Inc.

Owens Corning Intellectual Capital, LLC

Owens-corning Fiberglass Technology, Inc.

Other

James E Loftus

Michael T Pellegrin

Donn R Vermilion

Patrick L Ault

Lawrence Jerome Grubka

Bert Whitmore Elliott

David Paul Aschenbeck

William Edwin Smith

Christina Marie Wise

Jonathan Michael Verhoff

Carmen Anthony LaTorre

Christopher Patrick Kasprzak

David Michael Ploense

Edward Richard Harrington, Jr

Shu Situ-Loewenstein

Benjamin Barszcz

Randall M Haines

Virgil G Morris

Kevin P Gallagher

Jason Guerra

Frederick H Ponn

Jason D Guerra

Larry J Huey

Carl R Strauss

Patrick M Gavin

Jennifer Lynn Frey

Robert L Houston

Jay D Wagner

Dennis C Souers

Qingyu Zeng

Jennifer L Frey

An exemplary shingle includes at least one coated shingle sheet defining a headlap portion and a tab portion each having opposed upper and lower surfaces. A first line of adhesive is adhered to one of the upper surface of the headlap portion and the lower surface of the tab portion, and includes a first thermally activated adhesive material. A second line of adhesive is adhered to one of the upper surface of the headlap portion and the lower surface of the tab portion, and includes a second thermally activated adhesive material having a minimum activation temperature less than a minimum activation temperature of the first thermally activated adhesive material.

Shingle sealing arrangements

A sealant composition for roofing shingles that includes a base asphalt, a linear and/or a radial copolymer, oil, and a wax is provided. The linear copolymer has an A-B di-block or an A-B-A tri-block structure. The radial copolymer may have an (A-B)radial structure, where n is at least 4, or a tri-block (A-B-A) radial structure having from 4 to 8 arms. Blocks A and B may individually represent (1) styrene and butadiene or (2) styrene and isoprene. The oil is a petroleum-based oil that both 'softens' the asphalt and reduces the viscosity of the sealant composition. The wax may be a bis-stearamide wax. Additionally, the sealant composition may be reacted with elemental sulfur to crosslink the copolymer blend. The sealant composition seals at temperatures lower than conventional sealants and promotes the easy release of the shingle from a shingle bundle.

Sealant composition for releasable shingle

A roofing membrane includes a membrane layer. An adhesive layer is adhered to a first side of the membrane layer and a layer of granules is adhered to the first adhesive layer.

Granule coated waterproof roofing membrane

A laminated asphalt shingle including a base layer, a first decorative layer, and a second decorative layer is provided. The first decorative layer may be affixed to the base layer and to the second decorative layer by a flexible adhesive that permits the first decorative layer to move relative to both the base layer and the second decorative layer without de-bonding. The relative movement of the shingle layers permits the shingle to be folded over the ridge line of a roof without de-bonding or breaking the layers. Additionally, the relative movement of the layers when the shingle is installed over a ridge creates opposing transverse edges in which each layer is offset from the other layers as a result of the shingle bending about a different radius of curvature, thereby providing a dimensional appearance along the transverse edges.

Flexible laminated hip and ridge shingle

A method of integrating organic fibers with mineral fibers includes centrifuging organic fibers from molten organic material, using a rotating organic fiber spinner, directing the organic fibers into a downwardly moving veil of organic fibers and gases, with the veil having an inwardly converging shape as it moves downward, centrifuging mineral fibers from molten mineral material using a rotary mineral fiber spinner positioned concentrically within the downwardly moving veil of organic fibers, directing the mineral fibers into a downwardly moving veil of mineral fibers and gases within the veil of organic fibers, wherein the veil of mineral fibers intersects with the veil of organic fibers to integrate the mineral fibers with the organic fibers, and collecting the integrated mineral fibers and organic fibers as a fibrous pack. An apparatus for performing the method is also disclosed.

Method and apparatus for integrating organic fibers with mineral fibers

A fibrous insulation blanket is disclosed. The blanket includes a binderless collection of long, single component inorganic fibers. Preferably, the blanket is made of glass fibers.

Method for collecting fibers from a rotary fiberizer

A method of making a fibrous pack includes centrifuging at least two sets of mineral fibers from molten mineral material using at least two rotary mineral fiber spinners that are arranged in a machine direction along a collection surface, directing each set of the mineral fibers into a downwardly moving veil beneath one of the mineral fiber spinners, generating a downwardly moving array of aligned organic fibers from at least one orificed die that is spaced apart from each of the mineral fiber spinners and directing the array into contact with the mineral fibers, and collecting the mineral fibers and organic fibers as a fibrous pack. There is also provided apparatus for making a fibrous pack including at least two mineral fiber spinners that are arranged in a machine direction along a collection surface for centrifuging at least two sets of mineral fibers from molten mineral material, means for directing each set of mineral fibers into a downwardly moving veil beneath one of the mineral fiber spinners, at least one orificed die that is spaced from each of the mineral fiber spinners for generating a downwardly moving array of aligned organic fibers and directing the array into contact with the mineral fibers, and a collection surface for collecting the mineral fibers and organic fibers as a fibrous pack.

Method of making a fibrous pack

A method for producing asphalt fibers includes supplying molten asphalt to a rotating asphalt spinner, centrifuging asphalt fibers from the asphalt spinner, and collecting the asphalt fibers. The molten asphalt is supplied to the asphalt spinner at a temperature within the range of from about 270.degree. to about 500.degree. F. Also disclosed is a method for integrating asphalt with reinforcement fibers including the steps of establishing a downwardly moving veil of reinforcement fibers, such as glass fibers, and centrifuging asphalt fibers from a rotating asphalt spinner positioned within the veil of reinforcement fibers to integrate the asphalt with the reinforcement fibers. A method for making an asphalt roofing shingle includes the steps of assembling together a mat of asphalt fibers with a mat of reinforcement fibers, coating the assembled mats to form an asphalt coated sheet, applying granules to the asphalt coated sheet, and cutting the asphalt coated sheet into roofing shingles. The invention also includes the asphalt roofing shingle made by this process. Further, the invention includes asphalt highway reinforcement products containing asphalt fibers, and the method of making such products.

Integration of asphalt and reinforcement fibers

In a method for making bicomponent polymer fibers, first and second molten polymers are supplied to a rotating spinner having an orificed peripheral wall. The molten polymers are centrifuged through the orifices as molten bicomponent polymer streams. The streams are cooled to make bicomponent polymer fibers.

Bicomponent polymer fibers made by rotary process

Growing community of inventors

Newark, OH, United States of America

James E Loftus