Fina Technology, Inc.

Total American Services, Inc.

Totalenergies American Services, Inc.

Fengkui Li

John Ashbaugh

David J Rauscher

Tim J Coffy

Michel Daumerie

Robert Dotter

Jason Clark

Leland Daniels

Luyi Sun

Wyman T Stephens

Jon Tippet

Gabriel Desille

Caroline Schils

Jose M Sosa

David W Knoeppel

Kenneth Paul Blackmon

Michael Allen McLeod

Cyril Chevillard

Wei Wang

Douglas Alan Burmaster

Marc Mayhall

Ying Wang

Jayna Brown

Kenneth Blackmon

William John Gauthier

Likuo Sun

John Bieser

Leonardo Rodriguez Cortes

Russell McDonald

John Gaustad

Theodore Harris

Jerome Thierry-Mieg

Dang Le

David K Knoeppel

Ryan Albores

Jeffrey E Nairn

Douglas Burmaster

Marc Myhall

Jon David Tippet

Wyman Stephens

Leonardo Cortes

David Knoeppel

Theodore Iii Harris

Disclosed is an injection stretch blow molded (ISBM) container containing a surface having a static coefficient of friction (COF) of 0.15 to 0.21, a dynamic COF of 0.06 to 0.1, wherein the surface retains a water contact angle of 76° or higher for up to three minutes after wetting of the surface with a water drop of 14 to 16 mm diameter and the container is made with a polymeric composition containing a high density polyethylene (HDPE) having a dispersity (Mw/Mn) of 9 or higher as measured by GPC; a MI2 of 1 g/10 min or higher as measured by ASTM D-1238; 190° C./2.16 kg, as measured by ASTM D-1238; and an environmental stress crack resistance (ESCR) at 100% Igepal of >150 hours as measured by ASTM D-1693, B.

Low friction ISBM bottles

A polystyrene (PS) composition for making an extruded foam, the PS composition comprising: a dried PS/alumina compound comprising a PS and an alumina additive, wherein the dried PS/alumina compound has a moisture content, measured by Coulometer, that is less than or equal to about 0.05 weight percent (wt %); and a blowing agent.

Pre-dried polystyrene/alumina compound for foam extrusion

A polystyrene (PS) composition for making an extruded foam, the PS composition comprising polystyrene, a blowing agent, and an additive selected from glycerol monostearate (GMS), glycerol tri-stearate (GTS), mineral oil (MO), epoxidized soy oil (ESO), epoxidized polybutadiene, or combinations thereof. Methods of producing a low density polystyrene (PS) foam are also provided.

Polystyrene compositions for foam extrusion

A method of producing a silane cross-linked polyethylene is disclosed which includes maleating a polyethylene polymer to form a maleated polyethylene and reacting the maleated polyethylene with a primary or secondary amino silane to form a silane-grafted polyethylene. The method further includes treating the silane-grafted polyethylene in a moisture curing process to form the silane cross-linked polyethylene.

Process for cross-linked polyethylene production

A polymeric composition may include a polyolefin or styrenic polymer, a metallic acrylate salt, and an acid neutralizer.

Polymer foams

A masterbatch may include a syndiotactic polypropylene and one or more additives. The one or more additives may be present in the masterbatch in an amount of at least 13 weight percent based on a total weight of the masterbatch. The masterbatch may be formed by mixing the one or more additives with the syndiotactic polypropylene. The masterbatch may be mixed with a resin to form a resin mixture.

Masterbatch formulation and formation

A method of producing a sliane cross-linked polyethylene is disclosed which includes maleating a polyethylene polymer to form a maleated polyethylene and reacting the maleated polyethylene with a primary or secondary amino silane to form a silane-grafted polyethylene. The method further includes treating the silane-grafted polyethylene in a moisture curing process to form the silane cross-linked polyethylene.

Process for production of cross-linked polyethylene articles

A composite may include polylactic acid, polyethylene, and optionally a compatibilizer. The composite may be formed by combining the polylactic acid with the polyethylene. The composite may be formed into an extruded article.

Composites of polyethylene and polylactic acid

Polymeric compositions and processes of forming the same are discussed herein. The processes generally include contacting a polylactic acid with a reactive modifier selected from epoxy-functionalized polybutadiene, ionic monomer, and combinations thereof.

Modified polylactic acid, polymeric blends and methods of making the same

A high melt strength polypropylene is formed using maleated polypropylene and a combination of coupling agents and acid neutralizers. The maleated polypropylene can be formed using multi-functional monomers. The high melt strength polypropylene can be useful for foaming, sheet extrusion thermoforming, extrusion blow molding, extrusion coating, fiber, film, and the like.

High melt strength polypropylene and methods of making same

A pellet composed of a polymeric blend having a polyolefin and polylactic acid.

Single pellet polymeric compositions

Polystyrene blends and methods of making polystyrene blends including combining a styrene monomer and an epoxy-functional comonomer to form a combined mixture, subjecting the combined mixture to polymerization to obtain a polystyrene copolymer and combining the polystyrene copolymer with a biodegradable polymer to obtain a polystyrene blend.

Epoxy functional polystyrene for enhanced PLA miscibility

A biaxially oriented film includes a PLA and polyolefin (PLA/PO) blend. The film has a haze of 80% or greater as measured by ASTM-D1003 and a 45&#xb0; gloss of less than 50% as measured by ASTM-D-2457.

Polymeric blends and articles made therefrom

Fibers and methods of forming the fibers are described herein. The fibers generally include an ethylene based polymer exhibiting a molecular weight distribution of from about 2 to about 8.

Polyethylene fibers and processes of forming the same

Growing community of inventors

Houston, TX, United States of America

Fengkui Li