Princeton University

Vorbeck Materials Corporation

Battelle Memorial Institute

Kordsa Global Endustriyel Iplik Ve Kord Bezi Sanayi Ve Ticaret A.s.

Other

Ilhan A Aksay

Robert K Prud'homme

John S Lettow

Sibel Korkut

John M Crain

Jun Liu

Douglas H Adamson

Donghai Wang

Chuan-Hua Chen

Mathias Trau

Katherine S Chiang

Zhenguo Yang

Kate Redmond

Daiwon Choi

Dudley A Saville

Bora Buyukdincer

Nurcin Javaherian

Gustavo Pino

Ibrahim O Yildirim

George M Whitesides

Ahmed Abdala

David L Milius

Srinivas Manne

Itaru Honma

Daniel Martin Dabbs

Rong Kou

Zimin Nie

Richard A Register

Hak Fei Poon

Bulent Ozbas

Michael Pope

Christian Punckt

Margarita Herrera-Alonso

Shuyang Pan

Shawn Thayer Huxel

William Happer

David H Sturgis

Victor F Janas

Gordon D Cates, Jr

Mehrdad Yasrebi

Michael J McAllister

Kevor S TenHuisen

Robert K Prud'Homme

William W Kemp

Michael A Pope

Chuan-hua Chen

Michael Bozlar

Sol M Gruner

Rajeev Garg

Edward P Vicenzi

Valerie Alain-Rizzo

Ted Chao-Hung Yeh

Joy Saville, Legal Representative

Christopher O'Neil

David J Bozym

Nicholas Szamreta

Kathryn M McGrath

Cem B Ustundag

Ming Feng Hsu

Yi Xiao

Ryan C Hayward

Wan Y Shih

Wei H Shih

Xiaoping Li

James S Vartuli

Hamazo Nakagawa

Ali Vatansever

Sezen Gurdag

A method for the electrohydrodynamic deposition of carbonaceous materials utilizing an electrohydrodynamic cell comprising two electrodes comprised of a conductive material, by first combining a solid phase comprising a carbonaceous material and a suspension medium, placing the suspension between the electrodes, applying an electric field in a first direction, varying the intensity of the electric field sufficiently to drive lateral movement, increasing the electrical field to stop the lateral transport and fix the layers in place, then removing the applied field and removing the electrodes. Among the many different possibilities contemplated, the method may advantageously utilize: varying the spacing between the electrodes; removing the buildup from one or both electrodes; placing the electrodes into different suspensions; adjusting the concentration, pH, or temperature of the suspension(s); and varying the direction, intensity or duration of the electric fields.

Electrohydrodynamically formed structures of carbonaceous material

Printed electronic device comprising a substrate onto at least one surface of which has been applied a layer of an electrically conductive ink comprising functionalized graphene sheets and at least one binder. A method of preparing printed electronic devices is further disclosed.

Printed electronics

Embodiments of the present invention relate to battery electrodes incorporating composites of graphene and selenium-sulfur compounds for improved rechargeable batteries. In one embodiment, a conductive composition comprises a conductive composition having a Se&#x2014;S compound, a conductive additive. The Se&#x2014;S compound is present as SeS, wherein 0&#x3c;x&#x3c;8.

Electrodes incorporating composites of graphene and selenium-sulfur compounds for improved rechargeable lithium batteries

Method of making a graphene-ionic liquid composite. The composite can be used to make electrodes for energy storage devices, such as batteries and supercapacitors.

Graphene-ionic liquid composites

A thermal overload device containing a polymer composite, which contains at least one polymer and a modified graphite oxide material, containing thermally exfoliated graphite oxide having a surface area of from about 300 m/g to 2600 m/g, and a method of making the same.

Thermal overload device containing a polymer composition containing thermally exfoliated graphite oxide and method of making the same

Functionalized graphene sheets having a carbon to oxygen molar ratio of at least about 23:1 and method of preparing the same.

Functionalized graphene sheets having high carbon to oxygen ratios

Polymeric article reinforced with a reinforcing component. The reinforcing component includes a composition made from at least one polymer and graphene sheets.

Reinforced polymeric articles

A nanocomposite composition having a silicone elastomer matrix having therein a filler loading of greater than 0.05 wt %, based on total nanocomposite weight, wherein the filler is functional graphene sheets (FGS) having a surface area of from 300 m/g to 2630 m/g; and a method for producing the nanocomposite and uses thereof.

Multifunctional graphene-silicone elastomer nanocomposite, method of making the same, and uses thereof

A conductive circuit containing a polymer composite, which contains at least one polymer and a modified graphite oxide material, containing thermally exfoliated graphite oxide having a surface area of from about 300 m/g to 2600 m/g, and a method of making the same.

Conductive circuit containing a polymer composition containing thermally exfoliated graphite oxide and method of making the same

Method of making a graphene-ionic liquid composite. The composite can be used to make elec-trodes for energy storage devices, such as batteries and supercapacitors. Dis-closed and claimed herein is method of making a graphene-ionic liquid com-posite, comprising combining a graphene source with at least one ionic liquid and heating the combination at a temperature of at least about 130 &#xb0; C.

Growing community of inventors

Princeton, NJ, United States of America

Ilhan A Aksay