Dow Global Technolgoies LLC

The Dow Chemical Company

Rohm & Haas Electronic Materials LLC

Ddp Specialty Electronic Materials Us, LLC

Filmtec Corporation

Rohm and Haas Company

Bishop, Matthew T.

Lai, Shih-yaw

Neubauer, Anthony C.

Dooley, Joseph

Rudolph, Luciana

Barger, Mark A.

Walia, Parvinder S.

Matthew T Bishop

Michael K Gallagher

Christopher John Tucker

Lin Fu

Hamed Lakrout

Zhifeng Bai

Zidong Wang

David D Devore

Francis J Timmers

Ritchie A Wessling

Thoi H Ho

William J Harris

Shih-Yaw Lai

Maurice J Marks

Richard E Campbell, Jr

Daniel J Arriola

Felipe A Donate

David H Bank

Stephen E Bales

Jodi M Mecca

Mark S Oliver

Thomas S Lin

Mark Alan Barger

James P Godschalx

Chieh-Chun Chau

Daniel Lawrence Dermody

Anthony Charles Neubauer

Daniel P Sophiea

Huide Dennis Zhu

Michael D Read

Joseph Dooley

Craig F Gorin

Elissei Iagodkine

Parvinder Singh Walia

Thomas J Parsons

Vivek Kalihari

Caroline H Laufer

Thomas J McKeand

Yi Fan

Philip C Yang

Kumar N Sanketh

Niranjan Malvadkar

Ja-Young Koo

Joel R Racchini

Huang Wu

Jessica P Evans

Luciana Rudolph

Stephen E Hahn

Russell T Cooper

Elissei Lagodkine

Huide D Zhu

Anthony C Neubauer

The present disclosure provides a process. The process includes providing a blend containing (A) a first powder including (i) a polyolefin having a density from 0.860 g/cc to 0.910 g/cc, and a melt index from 1.5 g/10 min to 1,000 g/10 min; (ii) from 1 wt % to 15 wt % of a dispersant selected from an acrylic dispersant, a poloxamer, and combinations thereof; and (iii) optionally, a polyolefin wax, the first powder having a mean volume average particle size from 1 μm to 300 μm; and (B) a second powder including an ethylene/α-olefin copolymer having (i) a density from 0.920 g/cc to 0.955 g/cc; and (ii) a melt index from 1.0 g/10 min to 15 g/10 min, the second powder having a mean volume average particle size from 325 μm to 4,000 μm; and rotational molding the blend to form a rotational molded article.

Process for forming a rotational molded article

Disclosed are compositions comprising: a) one or more isocyanate functional components; b) one or more alkoxyalkyl benzoates; and c) one or more catalysts for the reaction of isocyanate moieties with hydroxyl groups. Disclosed is a method of bonding two or more substrates together comprising contacting two or more substrates together with a composition disclosed herein disposed along at least a portion of the area wherein the substrates are in contact. At least one of the substrates may be window glass. One of the other substrates may be a building or a vehicle.

Adhesive useful for installing vehicle windows

A composition comprising (A) at least one bisphenol-A polycarbonate resin, (B) at least one polypropylene, preferably a high crystallinity polypropylene, (C) at least one compatibilizer comprising an amine functionalized elastomeric polymer, (D) at least one organic phosphate flame retardant, preferably an organic phosphate that is liquid at room temperature, and, optionally, (E) one or more additives. These compositions are useful in the manufacture of wire insulation coatings of less than 0.2 mm with good scrape abrasion resistance.

Flame retardant thermoplastic composition of polycarbonate and polypropylene

The present disclosure is directed to a halogen-free composition and conductors coated with the halogen-free composition. The halogen-free composition includes (A) from 70 wt % to 85 wt % of a polymeric component and (B) from 30 wt % to 15 wt % of a halogen-free flame retardant. The polymeric component (A) includes (i) a propylene homopolymer or a mini-random copolymer with greater than 40% crystallinity and (ii) an ethylene/a-olefin copolymer. The halogen-free composition has a density less than 1.15 g/cc. The halogen-free composition also has a scrape abrasion resistance of greater than or equal to 350 cycles as measured in accordance with ISO 6722.

Halogen-free propylene-based insulation and conductor coated with same

Arylcyclobutene polymers having improved toughness are provided. Compositions and methods for coating arylcyclobutene polymers having improved toughness are also provided.

Toughened arylcyclobutene polymers

The invention is a device for processing materials comprising a mixing chamber having a valve for removal of the material from the mixing chamber and a piston which fits within the mixing chamber in a manner such that the piston can be moved to remove substantially all material from the mixing chamber via the valve; at least one, preferably at least two, retractable mixing element(s) wherein each of such elements is movable in and out of the mixing chamber through a port wherein the element and port are configured such that during mixing and when the element is withdrawn from the mixing chamber substantially no material is removed from the mixing chamber via the port. The invention is also a method of using such a device and a system comprising use of such devices in an automated or partially automated array.

Retractable pin mixing sample forming device

Silane functional polymers having uniform silane distribution, long chain branching or tertiary silane functionality and conversion thereof through coupling, hydrolysis, hydrolysis and neutralization, condensation, oxidation or hydrosilation are disclosed.

Silane functionalized olefin interpolymer derivatives

There are disclosed carbonate polymers of dihydroxyaryl fluorene having crosslinkable moieties. There are also disclosed such polymers in the form of composites. The polymers of this invention are capable of being crosslinked by activation of the crosslinkable moieties. Once crosslinked, these polymers demonstrate an excellent combination of properties including resistance to melting at high temperatures, solvent resistance, optical clarity, impact resistance, and physical strength.

Crosslinkable carbonate polymers of dihydroxyaryl fluorene

A microporous polyetheretherketone (PEEK) membrane in the form of films and hollow fibers formed without sulfonating the PEEK polymer. Solid fibers and articles are also claimed. A method of making membranes, fibers and articles from solutions of PEEK in non-sulfonating acid solvents in claimed. Solvents include methane sulfonic acid and trifluoromethane sulfonic acid. Sulfuric acid may be used as a diluent in non-sulfonating amounts. PEEK membranes are used as supports for composite ultrafiltration and reverse osmosis membranes. A method of making membranes, fibers, and articles is also described.

Microporous peek membranes and the preparation thereof

Growing community of inventors

Midland, MI, United States of America

Matthew T Bishop