Corning Incorporated

John Frederick Bayne

Sujanto Widjaja

Dana Craig Bookbinder

Steven Edward DeMartino

John Stephen Peanasky

Santona Pal

Christopher Lee Timmons

James William Brown

Jamie Lynne Morley

Stephan Lvovich Logunov

Shandon Dee Hart

Theresa Chang

Andrei Gennadyevich Fadeev

Chandan Kumar Saha

Siva Venkatachalam

Jamie Todd Westbrook

James Joseph Price

Jaymin Amin

Michael John Moore

Michael Albert Joseph, Ii

Kyle Christopher Hoff

Gautam Narendra Kudva

Eric Lee Miller

Butchi Reddy Vaddi

Jeffrey Scott Cites

Andrew Peter Kittleson

Dale Charles Marshall

Scott Winfield Deming

Todd Benson Fleming

Keith James Becken

Daniel Arthur Sternquist

Yabei Gu

Aiyu Zhang

Glenn Vertner Morgan

Kristen Lorraine Barefoot

Embodiments of the present disclosure are directed to coated glass articles which reduce glass particle formation caused by glass to glass contact in pharmaceutical glass filling lines.

Pharmaceutical glass coating for achieving particle reduction

A method of separating a glass web includes the steps of placing the glass web in tension by applying an in-plane tension to the glass web in a tensile direction and producing a region of increased tension on a first major surface of the glass web by imparting a curvature in the glass web. The method further includes separating the glass web along a separation path parallel to an axis of the curvature and transverse to the tensile direction by applying a defect to a portion of the first major surface in the region of increased tension.

Glass web separating devices and methods

A strengthened glass sheet is separated into undamaged sheet segments by mechanically scribing one or more vent lines of controlled depth into the sheet surface, the depths of the scribed lines being insufficient to effect sheet separation, and then applying a uniform bending moment across the vent lines to effect separation into multiple sheet segments, the vent lines being scribed from crack initiation sites comprising surface indentations formed proximate to the edges of the glass sheet.

Mechanical scoring and separation of strengthened glass

Impact-damage-resistant glass sheet comprising at least one chemically etched surface in combination with a tempering surface compression layer, the glass sheet exhibiting a high standardized ball drop failure height and a high flexural modulus of rupture strength, useful to provide damage-resistant glass cover sheets for consumer electronic video display devices, is provided by subjecting thin glass sheet to a combination of a surface tempering treatment and a surface etching treatment that improves strength while maintaining the optical glass sheet properties required for video display applications.

Impact-damage-resistant glass sheet

Methods and assemblies related to frame or bezel packaging of a sealed glass assembly, such as a fit-sealed OLED device, such as an OLED display panel. The frame or bezel packaging may have one or more of (a) rounded or chamfered corners, (a) a cover, (b) a reinforced lead edge, (c) openings or cutouts in the back panel to conserve material and lighten the bezel, and (d) a shock absorbent intermediate layer of low modulus of elasticity material applied between the sealed glass assembly and the back and/or sides of the frame or bezel. The frame or bezel design may include a gap between the sealed glass assembly and the back panel of the bezel. The gap may be filled at least in part with low modulus of elasticity backing material. The glass package may have one or more of (a) rounded or chamfered corners, (b) rounded or chamfered edges, (c) a low modulus of elasticity material applied around its periphery or portions of its periphery, such as on the corners only, (d) a shortened lead end, and (e) a thickened lead end.

Bezel packaging for sealed glass assemblies and a glass assembly therefor

A method for manufacturing a hermetically sealed package is provided, the method comprising the steps of: using a laser to heat a frit, disposed in a pattern between two substrates, such that the heated frit forms a hermetic seal which connects the substrates and further comprising: directing the laser to enter the frit pattern, then to trace the frit pattern, then to retrace a portion of the frit pattern, and then to exit the frit pattern; and selecting an initial laser power which, when the laser enters the frit pattern, is insufficient to heat the frit to form a hermetic seal; then increasing the laser power over a first section of the frit pattern to a target laser power at least sufficient to heat the frit to form a hermetic seal; and then decreasing the laser power over a second section of the frit pattern until the laser power is insufficient to heat the frit to form a hermetic seal before the laser exits the frit pattern.

Hermetically sealed glass package and method of manufacture

Methods and assemblies relate to bezel packaging of a sealed glass assembly, such as a frit-sealed OLED device. The bezel packaging includes a shock absorbent intermediate layer of low modulus of elasticity material applied between the sealed glass assembly and the bezel. A bonding agent, which may include the low modulus of elasticity material and/or a separate bonding material, affixes the sealed glass assembly to the bezel. Bezel modifications may be made to stabilize the bezel. Exemplary bezel modifications include reinforced bezel side walls and supporting straps attached between bezel walls. The bezel design may include a gap between the edges of the sealed glass assembly and the bezel walls, so as to avoid direct contact therewith. The gap may be filled at least in part with low modulus of elasticity organic adhesive to provide additional shock absorbency. The low modulus of elasticity material may include foam, ceramic fiber cloth and/or a low modulus of elasticity polymeric organic coating.

Bezel packaging of frit-sealed OLED devices

Growing community of inventors

Elmira, NY, United States of America

John Frederick Bayne