General Electric Company

Sabic Global Technolgoies B.v.

Sabic Innovative Plastics IP B.v.

Union Carbide Corporation

Other

At&t Intellectual Property I, L.p.

General Electric Corporation Gmbh

Shpp Global Technologies B.v.

Edward Norman Peters

Daniel W Fox

Hua Guo

Gary F Smith

Christina Louise Braidwood

Victor Mark, Deceased

Scott Michael Fisher

Paul Dean Sybert

Alvaro Carrillo

Alexey Kruglov

Geoffrey Henry Riding

Amy Rene Freshour

Jaykisor Pal

G Fred Willard

Dana C Bookbinder

Ester H Mark, Legal Representative

Erik René Delsman

Robert Russell Gallucci

Gary William Yeager

James Anthony Cella

George T Kwiatkowski

Linda A Domeier

Michael J Michno, Jr

Eylem Tarkin-Tas

Donald R Berdahl

Eddie Hedaya

Robert L Howe

Douglas Henry Lenz

Pamela A Matsch

Raymond Z Naar

Prakash Sista

Erik Rene Delsman

By Ester Mark, Legal Representive

Andrew A Martin

By Ester Mark, Representative

By Carol Mark, Representative

Michael W Schultz

Donald D Stewart

Amy R Freshour

High purity epoxide compounds methods for preparing the high purity epoxide compounds, and compositions derived from the epoxide compounds are provided. Also provided are materials and articles derived from the epoxide compounds.

High heat monomers and methods of use thereof

A curable composition includes specific amounts of a ketone, a curable component, and particulate poly(phenylene ether) having a mean particle size of 3 to 12 micrometers and a particle size relative standard deviation of 20 to 60 percent. The composition has a low viscosity that facilitates wetting of reinforcing structures, and composites formed from the composition and a reinforcing structure cure to form a dielectric material with a low dielectric constant and loss tangent.

Particulate poly(phenylene ether)-containing varnish composition, composite and laminate prepared therefrom, and method of forming composite

High purity epoxide compounds, methods for preparing the high purity epoxide compounds, and compositions derived from the epoxide compounds are provided. Also provided are materials and articles derived from the epoxide compounds.

High heat monomer compounds, methods for preparing compounds, and compositions derived from the compounds are provided. Also provided are materials and articles derived from the compounds.

A copolymer exhibiting improved heat resistance relative to phenolic resins is formed by the reaction of a bisphenol diglycidyl ether and a phenolphthalein and/or a phenolphthalimidine in a molar ratio of 0.98:1 to 1.02:1 in the presence of a catalyst. The copolymer can be used to mold plastic parts. The copolymer is also useful as a flexibilizer in thermoset compositions, and useful as a compatibilizer in blends of polar and non-polar polymers, and blends of non-polar polymers and polar fillers.

Copolymer of a bisphenol diglycidyl ether and a phenolphthalene and/or a phenolphthalimidine, method for the preparation thereof, article comprising the copolymer, and compositions comprising the copolymer

Disclosed are compositions comprising: Also disclosed are processes for preparing such compositions as well as articles derived therefrom.

Ultrafine poly(phenylene ether) particles and compositions derived therefrom

A rigid polyurethane or polyisocyanurate foam includes 1 to 50 weight percent of a particulate poly(phenylene ether) having a mean particle size of 1 to 40 micrometers. The particulate poly(phenylene ether) imparts reduced flammability and reduced water absorption to the foam. The foam is useful as a thermally insulating material in articles including domestic appliances, building materials, tanks, pipelines, heating pipes, cooling pipes, cold stores, and refrigerated vehicles.

Rigid foam and associated article and method

A polyurethane foam is prepared from a reaction mixture that includes specific amounts of a polyol, an aromatic isocyanate compound, a particulate poly(phenylene ether), and a blowing agent. The polyurethane foam exhibits one or more of increased compressive force deflection, increased flame retardancy, and increased rate of formation. A method of preparing the foam and articles incorporating the foam are described.

Flexible polyurethane foam and associated method and article

A thermoplastic polyurethane is formed by the reaction of a specific hydroxy-diterminated poly(phenylene ether) and an organic diisocyanate. The polyurethane-forming reaction optionally employs diols other than the hydroxy-diterminated poly(phenylene ether). Compared to thermoplastic polyurethanes lacking the residue of the hydroxy-diterminated poly(phenylene ether), the thermoplastic polyurethanes described herein exhibit properties including one or more of improved heat and oxidation resistance, improved resistance to acids, bases, and solvent, and reduced water absorption.

Thermoplastic polyurethane and associated method and article

A homogeneous solid composition includes an aromatic epoxy resin and a poly(phenylene ether) having a number average molecular weight of 600 to 2000 atomic mass units and an average of 1.5 to 3 hydroxyl groups per molecule. The molecular weight and hydroxyl functionality of the poly(phenylene ether) allow it to be dissolved in the epoxy resin at relatively low temperature, and remain dissolved as the solution is cooled and solidified. The homogeneous solid composition facilitates incorporation of the poly(phenylene ether) into powder coating compositions that exhibit reduced water absorption in the cured state.

Poly(phenylene ether)/epoxy homogeneous solid and powder coating composition incorporating same

A polyurethane foam is prepared from a reaction mixture that includes an aromatic isocyanate compound, and blowing agent, and a polyol that itself includes a poly(phenylene ether) having a number average molecular weight of 600 to 2000 atomic mass units and an average of 1.5 to 3 hydroxyl groups per molecule. Use of the poly(phenylene ether) is associated with faster formation of polyurethane, and increased compression force deflection. The polyurethane is useful for forming articles including bedding, furniture, automotive interiors, mass transportation interiors (seating, padding, instrument panels, door panels, steering wheels, armrests, and headrests), flooring underlay (foam, rebond binder), packaging, textiles, lining and gasketing applications, acoustic dampening materials, and weather stripping.

Polyurethane foam and associated method and article

A composition contains (a) 1 to 40 weight percent of poly(phenylene ether) particles having a mean particle size of 1 to 40 micrometers; and (b) 60 to 99 weight percent of a polyoxymethylene; wherein polystyrene is absent from the poly(phenylene ether) particles; wherein the composition comprises less than 0.1 volume percent, based on the total volume of the composition, of particulate metals, metalloids, oxides thereof, and combinations thereof, wherein the metals and metalloids are selected from iron, copper, aluminum, magnesium, lead, zinc, tin, chromium, nickel, tungsten, silicon, gold, silver, platinum, and alloys thereof. The poly(phenylene ether) particles reduce the density and increase the char yield of the polyoxymethylene. When the composition is prepared at a temperature below the glass transition temperature of the poly(phenylene ether), increased flexural strength can also be obtained. The composition is useful as a molding composition for a variety of articles.

Blend of poly(phenylene ether) particles and polyoxymethylene, article thereof, and method of preparation

A polyurethane or polyisocyanurate foam is prepared from a reaction mixture that includes comprising a polyol, an aromatic isocyanate compound, and a blowing agent. The polyol includes a poly(phenylene ether) having a number average molecular weight of 600 to 2000 atomic mass units and an average of 1.5 to 3 hydroxyl groups per molecule. The polyurethane or polyisocyanurate foam exhibits improved resistance to burning and/or reduced elapsed times to formation of tack-free foams relative to foams prepared without the poly(phenylene ether).

Rigid foam and associated article

An epoxybenzyl-terminated poly(arylene ether) has the structure R&#x2014;W&#x2014;R wherein W is a divalent poly(arylene ether) residue terminated with phenolic oxygen atoms, and R is an epoxybenzyl group, wherein each occurrence of R is the same or different. The epoxybenzyl-terminated poly(arylene ether) is formed by reacting a peroxide-containing reagent with a vinybenzyl-terminated poly(arylene ether). Also disclosed is a curable composition including the epoxybenzyl-terminated poly(arylene ether)s, a curing promoter, and, optionally, an auxiliary epoxy resin. The curable composition is useful for the preparation of composites, and in particular, composites used in manufacturing printed circuit boards.

Epoxybenzyl-terminated poly(arylene ether)s, method for preparation thereof, and curable compositions comprising same

A poly(phenylene ether)-poly(hydroxy ether)-poly(phenylene ether) (PPE-PHE-PPE) triblock copolymer is formed by reaction of a monohydroxy-terminated poly(phenylene ether) with a diepoxy-terminated poly(hydroxy ether) in the presence of a base. The PPE-PHE-PPE triblock copolymer is useful as a compatibilizer in blends of polar polymers and non-polar polymers. The PPE-PHE-PPE triblock copolymer is also useful as a compatibilizer for non-polar polymers and polar fillers.

Triblock copolymer, method for its formation, and compatibilized compositions comprising it

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Lenox, MA, United States of America

Edward Norman Peters