Corning Incorporated

Exxonmobil Research and Engineering Company

Richard Bergman

William James Miller

Mark Alan Lewis

Cheng-Chung Li

Thierry Luc Alain Dannoux

David T Ferrughelli

Randall David Partridge

Todd Roswech

Stuart Gray

Po Ki Yuen

Mark Leon Morrell

David Alan Deneka

Charles Michael Darcangelo

Raymond Eugene Fraley

Kenneth Joseph Drury

Priyank Paras Jain

Robert P Lucchesi

May Yanmei Xun

George L Kellogg

George P Walchuk

Disclosed is a laminated glass structure with one or more inner glass layers with at least one in tension and two outer glass layers in compression wherein one or both of the outer layers at least partially wrap around the one or more inner layers at one or more of the edges of the laminated glass structure. Also disclosed is a process for forming a laminated glass structure, comprising providing a laminated glass structure, removing at least some glass from at least one the edges of the structure to produce a concavity in at the at least one edge and applying heat to the at least one edge.

Laminated glass structure and method of manufacture

The present invention pertains to a pervaporation membrane process for the separation of high octane fuel components from a gasoline feed stream comprising feeding a mixed phase vapor-liquid feed to a cyclone separation means to separate the liquid from the vapor, then sending the saturated vapor to the membrane, thereby extending the useful life of the membrane.

Membrane separation process using mixed vapor-liquid feed

Delivery apparatus include an electrical circuit configured to heat a linear conduit and an elbow conduit. A first electrode can be mounted to an upstream portion of the linear conduit, a second electrode can be mounted downstream of the upstream portion, and a third electrode can be mounted to a curved segment of the elbow conduit within a footprint extension of a first passage of the linear conduit. In further examples, a delivery apparatus includes an electrical circuit with a first electrode mounted to an upstream portion of a linear conduit, a second electrode mounted to a downstream portion of the linear conduit, and a third electrode mounted to an elbow conduit. In still further examples, methods of heating molten glass include application of an electrical current such that neither a current flux through a linear conduit nor a current flux through an elbow conduit exceeds 8 amps/mm.

Delivery apparatus for a glass manufacturing apparatus and methods

A dual inlet microchannel device and a method for using the device to perform a flow-through kinetic assay are described. A microplate having an array of the dual inlet microchannel devices and in particular their specially configured flow chambers is also described. Several embodiments of the dual inlet microchannel devices and specially configured flow chambers are also described.

Dual inlet microchannel device and method for using same

A closed flow-through microplate is described herein that can be used to perform high-throughput kinetic flow-through assays to detect biomolecular interactions like material bindings, adsorptions etc. . . that is helpful for example with testing new drugs. A method for manufacturing the closed flow-through microplate is also described herein.

Closed flow-through microplate and methods for using and manufacturing same

A method of a stirring a molten glass which includes an analytical model which may be used to optimize the stirring conditions to minimize refractory metal inclusions which may result from the stirring operation.

Method for minimizing refractory metal inclusions in a glass stirring operation

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Horseheads, NY, United States of America

Richard Bergman