Philip Morris USA Inc.

Virginia Commonwealth University

Daikin Institute of Advanced Chemistry and Technology (dai-act)

University of Connecticut

Philip Morris Products S.a.

General Electric Technology Gmbh

Suresh Shenoy

William R Sweeney

Gregory James Griscik

Kenneth Joseph Wynne

Jon A Regrut

Ashok Kumar

Carolina Marun

Sadashige Irie

Robert A Weiss

Donald William Bairley

Hamid Olia

Rahul Jayant Terdalkar

David Golob

Manuel Marquez-Sanchez

Can Erkey

Takako Ohsaka, Legal Representative

Takako Ohsaka

Daniel Cohen

Jay Brian Anderson

Manuel Marques-Sanchez

David R Golob

Jeffrey F Magee

Gregory J Griscik

A consumable compressed tobacco product adapted to dissolve in an oral cavity. The compressed tobacco product is formed from a composition that includes at least one tobacco component, at least one flavorant, at least one filler-binder, at least one lubricant, at least one desiccant and at least one glidant. The compressed tobacco products are adapted to dissolve and provide tobacco satisfaction. A method of making a dissolvable compressed tobacco product is also provided.

Smokeless compressed tobacco product for oral consumption

Fluoropolymer materials containing tetrafluoroethylene monomers, such as PTFE, are significantly swollen by supercritical carbon dioxide at high temperatures and pressures. The swollen fluoropolymer is processable by molding, extrusion, and other techniques. In addition, the fluoropolymer may be sintered at significantly lower temperatures compared to a nonswollen fluoropolymer material. The melting temperature of fluorinated polymers containing tetrafluoroethylene and triflouroethylene monomers which are swollen with supercritical carbon dioxide is significantly reduced, thereby permitting manufacturing operations such as extruding and molding to be performed at lower temperatures and with reduced risk of decomposition.

Fluoropolymer-carbon dioxide compositions and methods of processing fluoropolymers

A conductive polymer composite, comprising a polymer and polypyrrole and derivatives thereof. The composite is manufactured by first diffusing an oxidant such as iodine into the polymer, and then diffusing pyrrole or a pyrrole derivative vapor into the impregnated polymer, resulting in an in situ chemical oxidative polymerization of pyrrole at the oxidant site. The conductivity of the composite foam can be effectively controlled between 10to 10S/cm, inclusive.

Conductive elastomeric foams and method of manufacture thereof

Growing community of inventors

Richmond, VA, United States of America

Suresh Shenoy