Uop Lcc

Turtle Wax, Inc.

Lanzatech New Zealand Limited

Other

Bedford Industries, Inc.

Sni S.p.a.

Michael A Schultz

Steven P Lankton

Robert C Jack

Constante P Tagamolila

Gary Cosentino

Gavin Paul Towler

Xin X Zhu

Deng-Yang Jan

Anil Rajaram Oroskar

James A Johnson

John Patrick Brady

Frederic W Joseph, Ii

Michael A Deddo

Bipin Virpal Vora

Bryan K Glover

Charles P Luebke

Hayim Abrevaya

Joel T Walenga

Jibreel A Qafisheh

Dale James Shields

William J Lechnick

Jill M Meister

Julie A Zarraga

Paul Alvin Sechrist

David A Wegerer

Timothy A Brandvold

Jason T Corradi

Christopher D Gosling

Colin M O'Donnell

Sean Dennis Simpson

Keith Allen Couch

Christopher Naunheimer

David Schiller

Jay A Milbrandt

Jeffrey D Tschetter

James W Harris

Gregory F Maher

Dennis E O'Brien

Douglas George Stewart

Saadet Ulas Acikgoz

Axel Wass

Terry L Langland

Joshua Platt

Derek Wayne Griffin

Ronald Gatan

Rachel Jane Brenc

Alice Marie Havill

Denis John Healy

James P Heidel

James Obern

Steven P Rosenblum

Joseph A Weiszmann

Karen P Glover

Gavin McAuley

Thomas Ewald Raiser

James L Czerwinski

Aaron Clymer

Jennifer R Holmgren

Frederic W Joseph

Ii Frederic W Joseph

A water-based graphene dispersion is made by shear stabilization. The method of preparing the water-based graphene dispersion using shear stabilization includes adding a composition containing a graphene powder, a super wetter surfactant and a water dispersible rheology agent into water to form an aqueous mixture; and shearing the aqueous mixture under high pressures to break down the thick layers of the graphene powder to thin layers of graphene platelet particles and to form the water-based graphene dispersion with the graphene platelet particles dispersed in the water-based graphene dispersion. The water-based graphene dispersion is stable without visible phase separation after storage at room temperature for at least one year or even more than one year.

Water-based graphene dispersion made by shear stabilization

Retrofit infuser

The present disclosure provides a method of graphene exfoliation and/or stabilization. Both graphene and silica are mixed in an organic solvent to form a liquid precursor, which is then directed through an orifice formed by a metal cylinder and a flat metal plate. The metal cylinder is pressed against the flat metal plate by a high pressure. The high shear between the metal cylinder and the flat metal plate breaks down the thick layers of graphene to thin layers, which are stably dispersed in the gel formed by the silica.

Method of graphene exfoliation and/or stabilization and composition prepared therefrom

Splash guard

Scrub brush

A spray cap system is described that can enable a user to more consistently and accurately dispense and work with the contents of a spray can. The system includes a spray cap, spray button, spray nozzle, implement holder, and an implement (such as a brush, a foam pad applicator, or a sponge). By using the spray cap system, a user may achieve a more optimal discharge pattern of the contents of the can with a more efficient and optimal coverage of a surface. In addition, the user may utilize the implement while it is attached to the spray cap or remove the implement to use the implement independently. The spray cap system provides versatility to a user by enabling the user to spray the contents of the spray can regardless of whether the implement is attached to the spray cap.

Spray cap system

Improvements in biological conversion processes and associated apparatuses are disclosed for the generation of useful end products such as ethanol, through metabolic pathways of C1-fixing bacteria that utilize, as a nutrient, a C1-carbon source from a C1-containing substrate such as an industrial waste gas. Particular aspects of the disclosure relate to the downstream recovery of ethanol and/or isopropanol from bleed and permeate streams and more particularly to performing such recovery with improved efficiency that can advantageously reduce capital (e.g., equipment) and/or operating (e.g., utility) costs.

Product management in biological conversion processes

Improvements in biological conversion processes and associated apparatuses are disclosed for the generation of useful end products such as ethanol, through metabolic pathways of C1-fixing bacteria that utilize, as a nutrient, a C1-carbon source from a C1-containing substrate such as an industrial waste gas. Particular aspects of the disclosure relate to the downstream recovery of ethanol and/or isopropanol from bleed and permeate streams and more particularly to performing such recovery with improved efficiency that can advantageously reduce capital (e.g., equipment) and/or operating (e.g., utility) costs. Particular aspects related to the downstream recovery of ethanol and/or isopropanol using a low pressure separator having an internal divider.

Low pressure separator having an internal divider and uses therefor

A labelling tie () includes a tie portion (), a wire assembly (), and a bib portion () connected to the tie portion. The tie portion () has a first arm (-R), a mid-segment, and a second arm (-L). Spaced apart perforations () intersect each of the first and second arms. The wire assembly () has a retention wire () that spans across the first arm, the mid-segment, and the second arm. A sheet of labelling ties () includes separably connected labelling ties. A method attaches a labelling tie to an item or a group of items. The method includes wrapping the first arm (-R) and second arm (-L) around at least one object ('), allowing the first and second arms to meet at a location with a portion of the first arm and a portion of the second arm extending past the location, and twisting the first and second arm portions together, thereby securing the tie portion around the object(s).

Perforated bib tie articles and methods of manufacture and use

Cap and holder assembly

Growing community of inventors

Chicago, IL, United States of America

Michael A Schultz