International Business Machines Corporation

Asahi Kasei Kabushiki Kaisha

University of Texas System

Central Glass Company, Limited

Other

Volkswagen Ag

University of Massachusetts

Bryan D McCloskey

Ho-Cheol Kim

Robert Dennis Miller

Gregory Michael Wallraff

Mark Whitney Hart

John Campbell Scott

Winfried W Wilcke

Naga Phani B Aetukuri

Leslie E Krupp

Shintaro Kitajima

Takashi Mori

Satoru Narizuka

Benny D Freeman

Todd Emrick

Sally Ann Swanson

Kurt Breitenkamp

Andrew Michael Herring

Ho Bum Park

Seok J Kang

Angela-Kristina Speidel

J Thomas McKinnon

Rouven Scheffler

Ravindra Revanur

A battery employing lithium-oxygen chemistry may include an anode comprising lithium, an electrolyte, and a porous cathode. The electrolyte may include a lithium-containing salt; a partially fluorinated ether, such as 2,2-bis(trifluoromethyl)-1,3-dioxolane; and a co-solvent selected from the group consisting of ethers, amides, nitriles, and combinations thereof. In some examples, the electrolyte does not include a cyclic carbonate ester, a sulfolane, or a sulfolane derivative. The porous cathode allows oxygen to come into contact with the electrolyte.

Lithium oxygen battery and electrolyte composition

A method includes dispensing ion-conducting particles on a substrate comprising an adhesive to which the ion-conducting particles adhere; overcoating the ion conducting particles with a polymer; removing the substrate and the adhesive from the ion conducting particles; and removing a polymer overburden on the ion conducting particles to form a device that includes: (i) the polymer or a derivative thereof, and (ii) ion-conducting particles. At least a portion of the ion-conducting particles extend through the polymer or its derivative.

Ion conducting hybrid membranes

A device includes a membrane that is: (i) impermeable to oxygen, and (ii) insoluble in at least one polar solvent; and ion conducting particles in the membrane. At least some of the particles extend from a first side of the membrane to an opposed second side of the membrane. The thickness of the membrane is 15 &#x3bc;m to 100 &#x3bc;m.

A lithium-oxygen battery may include an anode, a cathode, and an electrolyte between, and in contact with, the anode and the cathode. The anode may include lithium and/or a lithium alloy. In some examples, the cathode defines a surface that is predominantly metal oxide with an electron conductivity of at least 10Siemens per centimeter. In some examples, the cathode defines a surface in contact with oxygen, and includes ruthenium oxide. In some examples, the cathode defines a surface that is substantially covered by ruthenium oxide and is in contact with oxygen.

Cathode material for lithium&#x2014;oxygen battery

Azidoaryl-substituted cyclooctene monomers and synthesized and used in the preparation of various copolymers. Among these copolymers are those prepared from ring-opening metathesis polymerization of cyclooctene, polyethylene glycol-substituted cyclooctene, and azidoaryl-substituted cyclooctene. These copolymers are useful in the formation of crosslinked films that reduce fouling of water purification membranes.

Process of forming crosslinked copolymer film, crosslinked copolymer film formed thereby, and water purification membrane

The present invention includes methods and compositions for liquid separation and water purification. The present invention includes a purification membrane having a polymer matrix purification membrane that has been treated with dopamine to form a polydopamine coated membrane with a high water flux and a high hydrophilicity.

Water purification membranes with improved fouling resistance

The present invention encompasses methods and apparatus for creating metal nanoparticles embedded in a carbonaceous char, the conversion of an carbonaceous char with embedded metallic nanoparticles to graphite-encased nano-sized metal particles surrounded by char, the separation of the graphite encased metal particles from the char matrix, and the related preparation and isolation of carbon nanosphere materials with or without the enclosed metal nanoparticles, and the uses of such carbon nanospheres and graphite enclosed metal nanoparticles as supports and enhancers for fuel cell electrocatalysts and other applications.

Laser pyrolysis method for producing carbon nano-spheres

Growing community of inventors

Campbell, CA, United States of America

Bryan D McCloskey