Corning Incorporated

John William Botelho

Ruchi Sarda Tandon

Heather Debra Boek

Lu Zhang

Eric H Urruti

Linda Frances Reynolds-Heffer

Jason Arthur Howles

Pushkar Tandon

Gregory F Jacobs

Michael James Winningham

Brian Paul Strines

Jeffrey John Domey

Ching-Kee Chien

Huan-Hung Sheng

Kathleen Ann Wexell

Diane Kimberlie Guilfoyle

Michelle Nicole Haase Pastel

Edward Arthur Cuellar

Jill Ann Cummings

Fiber coatings with low Young's modulus, low fiber pullout force for fibers in the as-drawn state, and small time-dependent increases in pullout force as the fiber ages. The fiber coatings are cured products of coating compositions that include an oligomer formed from an isocyanate, a hydroxy acrylate compound and a polyol. The oligomer includes a polyether urethane acrylate and a di-adduct compound. The reaction mixture used to form the oligomer includes a molar ratio of isocyanate:hydroxy acrylate:polyol of n:m:p, where when p is 2, n is in the range from 3.0 to 5.0 and m is in the range from 1.50n-3 to 2.50n-5. Control of the n:m:p ratio leads to compositions that, when cured, provide coatings and cured products having low Young's modulus, low pullout force on glass, and weak variations with time as the fiber ages.

Fiber coatings with low pullout force

A treated monomer for optical fiber coatings, a coating composition containing the treated monomer, a coating formed from a coating composition containing a treated monomer, and a fiber coated with the coating formed from a coating composition containing a treated monomer. The monomer is an alkoxylated alkyl acrylate and is formed by acrylating a polyol precursor. The monomer may include residual unreacted polyol precursor. The monomer is treated with a derivatizing agent to convert residual unreacted polyol to a derivative form. The derivative form is less susceptible to degradation to the corresponding non-alkoxylated alcohol or other lower alkoxylated alcohol. The treated monomer includes the alkoxylated alkyl acrylate and the derivative form of the polyol.

Optical fiber coating and composition

A method of making a glass article with an anti-smudge surface includes providing a glass article with a target surface. The method includes providing a coating solution consisting essentially of a fluorosilane compound and a solvent that is miscible with the fluorosilane compound. The method includes spray-coating the target surface with the coating solution while controlling the spray-coating to form a coating layer having a thickness in a range from 1 to 20 nm on the target surface.

Glass article with an anti-smudge surface and a method of making the same

Methods for assembling an optoelectronic device are provided. The optoelectronic device includes a first transparent substrate, a second substrate, and environmentally sensitive components. The methods comprise the step of applying a fill material to a surface of at least one of the substrates, and lowering a viscosity of the fill material. The methods further comprise the step of pressing the first transparent substrate and the second substrate together such that the fill material substantially fills an area between the first transparent substrate and the second substrate and substantially encapsulates exposed portions of the environmentally sensitive components. The methods still further comprise the step of sealing the first transparent substrate and the second substrate together to hermetically seal the fill material within the area.

Method for assembling an optoelectronic device

A method is described herein for sintering a frit to a glass plate where the sintered frit and glass plate are subsequently sealed to another glass plate to form a sealed glass package. Examples of the sealed glass package include a light-emitting device (e.g., organic light emitting diode (OLED) device), a photovoltaic device, a food container, and a medicine container.

Sealed glass package

Pastes for use in producing sintered frit patterns () on glass sheets (), such as the glass sheets used as covers for OLED () display devices (), are provided. The pastes include glass particles, filler particles, and a vehicle. The sizes of the filler and/or glass particles are reduced compared to prior art pastes. Reductions in porosity and surface roughness of sintered frits produced using the pastes, as well as improvements in the available process window for producing OLED packages and the hermeticity and strength of those packages, are reported.

Frit-containing pastes for producing sintered frit patterns on glass sheets

Method for sintering a frit to a glass plate

The present invention relates to a composition for coating optical fibers that includes an oligomeric component present in an amount of about 15 weight percent or less and a monomeric component present in an amount of about 75 weight percent or more, where the cured product of the composition has a Young's modulus of at least about 650 MPa. When the composition is substantially devoid of the oligomeric component, the monomeric component preferably includes two or more monomers. Also disclosed are the cured products of the compositions of the present invention, optical fibers that contain secondary coatings prepared from the compositions of the present invention, methods of making such optical fibers, as well as fiber optic ribbons containing a matrix prepared from the compositions of the present invention. The invention further relates to a composition for coating optical fibers that includes an oligomeric component present in an amount of more than about 15 weight percent and a monomeric component present in an amount of less than about 82 weight percent, where the cured product of the composition has a Young's modulus of at least about 900 MPa.

Secondary coating composition for optical fibers

The present invention relates to an optical fiber ribbon. The optical fiber ribbon includes a plurality of coated, substantially coplanar optical fibers and a ribbon matrix material which maintains the plurality of coated optical fibers in substantially coplanar alignment. Each of the optical fibers includes a glass core, a cladding layer. surrounding and adjacent to the glass core, and a primary polymeric coating material, preferably containing a silicone, surrounding and adjacent to the cladding layer. The primary polymeric coating material adheres to the cladding layer to form a cladding layer-primary polymeric coating material interface. Upon application of a longitudinal stripping force at the cladding layer-primary polymeric coating material interface, the ribbon matrix material and the primary polymeric coating material are substantially removed from the cladding layer. A continuous, smooth residual layer of the primary polymeric coating material with a thickness of less than about 5 &mgr;m remains on the cladding layer. These optical fiber ribbons exhibit enhanced strippability without sacrificing adhesion of the primary coating material and are well-suited to being spliced by mass fusion splicing techniques.

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Corning, NY, United States of America

John William Botelho