Corning Incorporated

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Corning Incorporation

Corning Incorported

Robert Michael Morena

Melinda Ann Drake

Steven Edward DeMartino

Paul Stephen Danielson

Robert Anthony Schaut

Santona Pal

Sinue Gomez

Lisa Ann Lamberson

John Stephen Peanasky

Theresa Chang

Andrei Gennadyevich Fadeev

Christopher Lee Timmons

Dana Craig Bookbinder

Charlene Marie Smith

Matthew John Dejneka

George Halsey Beall

Bruce Gardiner Aitken

Natesan Venkataraman

Ronald Luce Verkleeren

Kaveh Adib

Susan Lee Schiefelbein

James Patrick Hamilton

Adam James Ellison

Zhen Song

Marie Jacqueline Monique Comte

Joel P Carberry

Chandan Kumar Saha

Randall Eugene Youngman

Qiang Fu

Alexander Mikhailovich Streltsov

Joseph Francis Schroeder, Iii

Jeffrey Todd Kohli

Henry Edwin Hagy

Karen Leslie Geisinger

Michael Edward Badding

Lanrik Wayne Kester

George Bigelow Hares

Josef C Lapp

Curtis Robert Fekety

Adam J G Ellison

Indrajit Dutta

Sujanto Widjaja

Gaylord L Francis

Lisa C Chacon

Richard J Miller, Ii

James Joseph Price

David Eugene Baker

Margaret E Greene

Nicholas Francis Borrelli

Thomas Dale Ketcham

Kenneth Chyung

Mark P Taylor

Robert George Manley

Brent M Wedding

Kamjula Pattabhirami Reddy

William Richard Trutna

Douglas Miles Noni, Jr

James Edward Dickinson, Jr

Xinyuan Liu

Pamela Arlene Maurey

Sara Jean Sick

Scott Glaeseman

Kishor Purushottam Gadkaree

Stephan Lvovich Logunov

Thierry Luc Alain Dannoux

Steven Bruce Dawes

Robert Bruce Elkins, Ii

Linda Ruth Pinckney

Edward John Fewkes

Dell Joseph St Julien

Cameron Wayne Tanner

Timothy James Orsley

James Gregory Couillard

Jeffrey Dean Danley

John Forrest Wight, Jr

Thomas Michael Cleary

Sasha Marjanovic

David Myron Lineman

Darrin Max Miller

Michael John Moore

Adra Smith Baca

Yanxia Ann Lu

Jeffrey Scott Cites

Mark Lawrence Powley

Thierry L Dannoux

Jeffrey Earl Cortright

Charles Mitchel Sorensen, Jr

Frances M Smith

Bryan Ray Wheaton

Jian-Zhi Jay Zhang

Paulo Gaspar Jorge Marques

William Gurney Dorfeld

James Patrick Murphy

Randy Dean Ziegenhagen

W Duane Amundson, Jr

Paulo Jorge Marques

Linda Frances Reynolds-Heffer

L Urdenis Johnson

Carol L Buhrmaster

Jonathan Earl Walter

Solid lithium-ion ceramic electrolyte membranes have an average thickness of less than 200 micrometers. A constituent electrolyte material has an average grain size of less than 10 micrometers. The solid lithium-ion ceramic electrolyte is free-standing. Alternatively, solid lithium-ion electrolyte membranes have a composition represented by LiMM'M″(PO), where M is a 3ion, M′ is a 4ion, M″ is a 5ion, 0≤x≤2 and 0≤y≤2.

Reactive sintering of ceramic lithium-ion solid electrolytes

Disclosed herein are glass containers which may include a glass body comprising an alkali aluminosilicate glass composition having a Class HGA1 hydrolytic resistance when tested according to the ISO 720:1985 testing standard. The glass body may have an interior surface and an exterior surface. A heat-tolerant coating may be bonded to at least a portion of the exterior surface of the glass body. The heat-tolerant coating may have a coefficient of friction of less than about 0.7 and is thermally stable at a temperature of at least 260° C. for 30 minutes. The heat-tolerant coating may comprise a polymer, and the heat-tolerant coating may have a thickness of less than or equal to 100 nm.

Delamination resistant glass containers with heat-tolerant coatings

A group of glass compositions in the LiO—AlO—SiO—BOfamily that can be chemically strengthened in single or multiple ion exchange baths containing at least one of NaNOand KNOfor a short time (2-4 hours) to develop a deep depth of layer (DOL). In some instances, the DOL is at least 70 μm; in others, at least about 100 μm. The ion exchanged glasses have a high damage resistance (indentation fracture toughness ranging form greater than 10 kgf to greater than 50 kgf) that is better than or at least comparable to that of sodium aluminosilicate glasses.

Chemically strengthenable lithium aluminosilicate glasses with inherent damage resistance

The embodiments described herein relate to chemically and mechanically durable glass compositions and glass articles formed from the same. In embodiments, the glass composition may include 74-78 mol. % SiO; X mol. % AlO, wherein X is 5-7; alkaline earth oxide comprising MgO and CaO, wherein: CaO is 0.1-1.0 mol. %; MgO is 4-7 mol. %; and a ratio (CaO (mol. %)/(CaO (mol. %)+MgO (mol. %)) is less than or equal to 0.5. The glass composition may further include Y mol. % alkali oxide, wherein the alkali oxide comprises 9-13 mol. % NaO and less than or equal to 0.4 mol. % of a fining agent. The glass composition may be free of boron and compounds of boron.

Glass compositions with improved chemical and mechanical durability

A glass container for storing pharmaceutical formulations may include a glass body formed from a Type IA or Type IB glass composition according to ASTM Standard E438-92(2011). The glass body may include a wall portion with an inner surface and an outer surface, a heel portion and a floor portion, wherein the inner surface of the glass container is formed by the inner surface of the glass body. The glass body may include at least a class A2 base resistance or better according to ISO 695, at least a type HGB2 hydrolytic resistance or better according to ISO 719 and Type 1 chemical durability according to USP <660>. The glass container does not comprise a boron-rich layer on the inner surface of the glass body in as formed condition.

Glass containers with delamination resistance and improved damage tolerance

A coated glass pharmaceutical package includes a glass body having a Type 1 chemical durability according to USP 660, at least a class A2 base resistance or better according to ISO 695, and at least a type HGB2 hydrolytic resistance or better according to ISO 719, the glass body having an interior surface and an exterior surface and a wall extending therebetween. A lubricous coating having a thickness of less than or equal to 90 nm may be positioned on at least a portion of the exterior surface of the glass body but not on any portion of the interior surface. The portion of the coated glass package with the lubricous coating comprises a coefficient of friction that is at least 20% less than an uncoated glass package and the coefficient of friction does not increase by more than 30% after undergoing a depyrogenation cycle including exposure to a temperature of 250° C. for a time period of 30 minutes. A horizontal compression strength of the coated glass package is at least 10% greater than an uncoated glass package and the horizontal compression strength is not reduced by more than 20% after undergoing the depyrogenation cycle including exposure to a temperature of 250° C. for a time period of 30 minutes and then being abraded. The lubricous coating comprises a polymer.

Glass containers with improved strength and improved damage tolerance

A method of making a stoichiometric monazite (LaPO) composition or a mixture of LaPOand LaPOcomposition, as defined herein. Also disclosed is a method of joining or sealing materials with the compositions, as defined herein.

High temperature sealant and methods thereof

According to one embodiment, a glass article may include SiO, AlO, LiO and NaO. The glass article may have a softening point less than or equal to about 810&#xb0; C. The glass article may also have a high temperature CTE less than or equal to about 27&#xd7;10/&#xb0; C. The glass article may also be ion exchangeable such that the glass has a compressive stress greater than or equal to about 600 MPa and a depth of layer greater than or equal to about 25 &#x3bc;m after ion exchange in a salt bath comprising KNOat a temperature in a range from about 390&#xb0; C. to about 450&#xb0; C. for less than or equal to approximately 15 hours.

Ion exchangeable Li-containing glass compositions for 3-D forming

A method includes depositing a glass frit on sidewalls of a plurality of cavities of a shaped article formed from a glass material, a glass ceramic material, or a combination thereof. The glass frit is heated to a firing temperature above a glass transition temperature of the glass frit to sinter the glass frit into a glaze disposed on the sidewalls of the plurality of cavities.

Methods and apparatus for forming shaped articles, shaped articles, methods for manufacturing liquid lenses, and liquid lenses

A group of glass compositions in the LiO&#x2014;AlO&#x2014;SiO&#x2014;BOfamily that can be chemically strengthened in single or multiple ion exchange baths containing at least one of NaNOand KNOfor a short time (2-4 hours) to develop a deep depth of layer (DOL). In some instances, the DOL is at least 70 &#x3bc;m; in others, at least about 100 &#x3bc;m. The ion exchanged glasses have a high damage resistance (indentation fracture toughness ranging form greater than 10 kgf to greater than 50 kgf) that is better than or at least comparable to that of sodium aluminosilicate glasses.

Disclosed herein are delamination resistant glass pharmaceutical containers which may include a glass body having a Class HGA1 hydrolytic resistance when tested according to the ISO 720:1985 testing standard. The glass body may have an interior surface and an exterior surface. The interior surface of the glass body does not comprise a boron-rich layer when the glass body is in an as-formed condition. A heat-tolerant coating may be bonded to at least a portion of the exterior surface of the glass body. The heat-tolerant coating may have a coefficient of friction of less than about 0.7 and is thermally stable at a temperature of at least 250&#xb0; C. for 30 minutes.

A method of forming a solid, dense, hermetic lithium-ion electrolyte membrane comprises combing an amorphous, glassy, or low melting temperature solid reactant with a refractory oxide reactant to form a mixture, casting the mixture to form a green body, and sintering the green body to form a solid membrane. The resulting electrolyte membranes can be incorporated into lithium-ion batteries.

Methods of producing a glass article include melting a first glass composition and feeding a second glass composition into the melter. Both glass compositions include the same combination of components but at least one component has a concentration that is different in each. At least three glass articles may be drawn from the melter, including: a first glass article formed from the first glass composition; at least one intermediate glass article composed of neither the first nor the second glass composition; and a final glass article not composed of the first glass composition. The concentration of the at least one component in the intermediate glass article may be between the concentration in the first and second glass compositions. The first glass article and final glass article may have differing values for certain properties, and the intermediate glass article may have an intermediate set of values for the same properties.

Methods for manufacturing glass articles

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Lindley, NY, United States of America

Robert Michael Morena