Corning Incorporated

Corsam Technologies LLC

The Penn State Research Foundation

John Christopher Mauro

Adam James Ellison

Matthew John Dejneka

Natesan Venkataraman

Timothy James Kiczenski

Qiang Fu

Xiaoju Guo

Huayun Deng

Douglas Clippinger Allan

Marcel Potuzak

Ye Fang

Douglas Miles Noni, Jr

Morten Mattrup Smedskjaer

Timothy Michael Gross

Srikanth Raghavan

Jason Sanger Frackenpohl

Robert Anthony Schaut

Adama Tandia

Charlene Marie Smith

Bruce Gardiner Aitken

Heather Debra Boek

Mark Owen Weller

Lina Ma

Michelle Diane Pierson-Stull

Sumalee Likitvanichkul

Michael Joshua Snyder

Guangli Hu

Mingqian He

Joydeep Lahiri

Jian Luo

Frank Thomas Coppola

Shawn Rachelle Markham

James Edward Dickinson, Jr

Brian L Webb

Yulong Hong

Megan Aurora DeLamielleure

Michael S Pambianchi

Valerie Claudine Lacarriere

Fang Lai

Liying Zhang

Alexey Sergeyevich Amosov

Alexander Mikhailovich Efremov

Lynn Marie Thirion

Ronald John Parysek

James Scott Sutherland

Sinue Gomez

Lisa Anne Moore

Mallanagouda D Patil

Ronald Leroy Stewart

Jeffrey Todd Kohli

Valerio Pruneri

Zhongzhi Tang

Thomas Michael Cleary

Jason Thomas Harris

Aize Li

Rohit Rai

Randall Eugene Youngman

Sergey Yurevich Ten

Salvatore Morasca

Kochuparambil Deenamma Vargheese

Alain R E Carre

Donghui Zhao

Kim Doreen Pierotti

Yihong Mauro

Alain Re Carre

Ye Luo

Dana Lynne Widmer-Quiel

Netesan Venkataraman

Akenda Zellet-Lukaso

An ion exchangeable glass having a high degree of resistance to damage caused by abrasion, scratching, indentation, and the like. The glass comprises alumina, BO, and alkali metal oxides, and contains boron cations having three-fold coordination. The glass, when ion exchanged, has a Vickers crack initiation threshold of at least 10 kilogram force (kgf).

Zircon compatible, ion exchangeable glass with high damage resistance

An aluminoborosilicate glass includes alkaline earth oxides and is substantially free of alkali oxides. The glass may be fusion formable and may be useful as a substrate or other article, such as with consumer and commercial electronic devices.

Aluminoborosilicate glass substantially free of alkali oxides

Methods of making a bioactive glass fiber include forming a melt of a glass composition including: 50 to 70% SiO; 0.1 to 10% AlO, 5 to 30% NaO, 0.1 to 15% KO, 0.1 to 15% MgO, 0.1 to 20% CaO, and 5 to 10% PO, based on a 100 wt % of the glass composition. The melt has a viscosity of from 200 Poise to 2,000 Poise. Methods include drawing the melt into a drawn glass fiber. Bioactive glass compositions include: 60 to 70% SiO; 15 to 30% NaO, 5 to 15% KO, 1 to 10% CaO, and 5 to 10% PO, based on a 100 wt % of the glass composition.

High liquidus viscosity bioactive glass

Glasses that can be chemically strengthened and are colored by transition metals. Most of the glasses are black, with some having high damage resistance and compressive surface layers having high compressive stress and depth of layer after ion exchange. These colored glasses do not require a post-forming heat treatment to produce color and are formable by fusions drawing, rolling, slot drawing, and float glass processes.

Transition metal-containing, ion exchangeable colored glasses

A glass article including at least about 40 mol % SiOand, optionally, a colorant imparting a preselected color is disclosed. In general, the glass includes, in mol %, from about 40-70 SiO, 0-25 AlO, 0-10 BO; 5-35 NaO, 0-2.5 KO, 0-8.5 MgO, 0-2 ZnO, 0-10% POand 0-1.5 CaO. As a result of ion exchange, the glass includes a compressive stress (σ) at at least one surface and, optionally, a color. In one method, communicating a colored glass with an ion exchange bath imparts σwhile in another; communicating imparts σand a preselected color. In the former, a colorant is part of the glass batch while in the latter; it is part of the bath. In each, the colorant includes one or more metal containing dopants formulated to impart to a preselected color. Examples of one or more metal containing dopants include one or more transition and/or rare earth metals.

Colored alkali aluminosilicate glass articles

A bioactive glass-ceramic composition as defined herein. Also disclosed are methods of making and using the disclosed compositions.

Lithium disilicate glass-ceramic compositions and methods thereof

A glass article comprising an alkali aluminosilicate glass that is formable by down-draw processes for example slot- and fusion-draw to thicknesses of 125 &#x3bc;m or less and is capable of being chemically strengthened by ion-exchange to achieve a compressive stress at its surface of at least 950 MPa, in some embodiments at least about 1000 MPa, and in other embodiments at least about 1100 MPa. The high surface compressive stress allows the glass to retain net compression and thus contain surface flaws when the glass is subjected to bending around a tight radius. The glass may be used in foldable display applications.

Ion-exchangeable glass with high surface compressive stress

A glass composition comprises a germanosilicate glass containing 5-35 mol % ZnO. The glass composition has a relatively high refractive index, good glass-forming ability, and UV-shielding properties.

Germanosilicate glasses containing zinc oxide

Glass-ceramics and precursor glasses that are crystallizable to glass-ceramics are disclosed. The glass-ceramics of one or more embodiments include rutile, anatase, armalcolite or a combination thereof as the predominant crystalline phase. Such glasses and glass-ceramics may include compositions of, in mole %: SiOin the range from about 45 to about 75; AlOin the range from about 4 to about 25; POin the range from about 0 to about 10; MgO in the range from about 0 to about 8; RO in the range from about 0 to about 33; ZnO in the range from about 0 to about 8; ZrOin the range from about 0 to about 4; BOin the range from about 0 to about 12, and one or more nucleating agents in the range from about 0.5 to about 12. In some glass-ceramic articles, the total crystalline phase includes up to 20% by weight of the glass-ceramic article.

Ion exchangeable glass, glass ceramics and methods for making the same

According to one embodiment, a glass may include from about 50 mol. % to about 70 mol. % SiO; from about 12 mol. % to about 35 mol. % BO; from about 4 mol. % to about 12 mol. % AlO; greater than 0 mol. % and less than or equal to 1 mol. % alkali metal oxide, wherein LiO is greater than or equal to about 20% of the alkali metal oxide; from about 0.3 mol. % to about 0.7 mol. % of NaO or LiO; and greater than 0 mol. % and less than 12 mol. % of total divalent oxide, wherein the total divalent oxide includes at least one of CaO, MgO and SrO, and wherein a ratio of LiO (mol. %) to (LiO (mol. %)+(NaO (mol. %)) is greater than or equal 0.4 and less than or equal to 0.6. The glass may have a relatively low high temperature resistivity and a relatively high low temperature resistivity.

Borosilicate glasses with low alkali content

Computer-implemented methods and apparatus are provided for predicting/estimating (i) a non-equilibrium viscosity for at least one given time point in a given temperature profile for a given glass composition, (ii) at least one temperature profile that will provide a given non-equilibrium viscosity for a given glass composition, or (iii) at least one glass composition that will provide a given non-equilibrium viscosity for a given time point in a given temperature profile. The methods and apparatus can be used to predict/estimate stress relaxation in a glass article during forming as well as compaction, stress relaxation, and/or thermal sag or thermal creep of a glass article when the article is subjected to one or more post-forming thermal treatments.

Methods and apparatus for predicting glass dynamics

Alkali-doped boroaluminosilicate glasses are provided. The glasses include the network formers SiO, BO, and AlO. The glass may, in some embodiments, have a Young's modulus of less than about 65 GPa and/or a coefficient of thermal expansion of less than about 40&#xd7;10/&#xb0; C. The glass may be used as a cover glass for electronic devices, a color filter substrate, a thin film transistor substrate, or an outer clad layer for a glass laminate.

Alkali-doped and alkali-free boroaluminosilicate glass

A chemically strengthened bioactive glass-ceramic composition as defined herein. Also disclosed are methods of making and using the disclosed compositions.

Chemically strengthened bioactive glass-ceramics

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Corning, NY, United States of America

John Christopher Mauro