Corning Incorporated

Other

Coming Incorporated

Mark Alan Lewis

William James Miller

David Henry

Yue Zhou

Todd Parrish St Clair

Cheng-Chung Li

Stephen Joseph Caracci

Richard Bergman

Jessica Jo Kelley

Jianguo Wang

Dale Robert Powers

Mark Alejandro Quesada

Huiqing Wu

Xinfeng Xing

Cai Liu

Danhong Zhong

Stephan Lvovich Logunov

Bruce Gardiner Aitken

Theresa Chang

Alexander Mikhailovich Streltsov

Wageesha Senaratne

Heather Debra Boek

Cameron Wayne Tanner

William Peter Addiego

Pascale Oram

Elizabeth Marie Vileno

Robert John Locker

Thomas Richard Chapman

Leonard Charles Dabich, Ii

Keith Norman Bubb

Paul Michael Ferm

Michael James Lehman

Huthavahana Kuchibhotla Sarma

Robert Randall Hancock, Jr

Kenneth Joseph Drury

David Jack Bronfenbrenner

Fei Xia

Christopher Lane Kerr

Thomas Jean Glasson

Roychelle Sheneen Ingram-Ogunwumi

Xiaoran Fang

J Greg Couillard

Chirag D Soni

Kimberly K Cameron

Deborah Lynn Shanley

Robert R Hancock Rr

Pamela Jeanne Murray

Green ceramic batch mixtures include: at least one inorganic batch component, preferably cordierite; at least one binder, preferably polyisoprene, poly(vinyl formal), poly(vinyl methyl ether), polybutadiene carboxy terminated; and an inverse emulsion having a continuous phase, an aqueous dispersed phase, and at least one emulsifier, preferably at least one functionalized silicone compound having at least one functional group chosen from a hydroxyl group, a carboxyl group, hydroxyl-terminated ethylene oxide groups.

Green ceramic batch mixtures comprising an inverse emulsion and methods for forming a ceramic body

A method for applying a surface treatment to a plugged honeycomb body comprising porous wall includes: mixing particles of an inorganic material with a liquid vehicle and a binder material to form a liquid-particulate-binder stream; mixing the liquid-particulate-binder stream with an atomizing gas, directing the liquid-particulate-binder stream into an atomizing nozzle thereby atomizing the particles into liquid-particulate-binder droplets comprised of the liquid vehicle, the binder material, and the particles; conveying the droplets toward the plugged honeycomb body by a gaseous carrier stream, wherein the gaseous carrier stream comprises a carrier gas and the atomizing gas; evaporating substantially all of the liquid vehicle from the droplets to form agglomerates comprised of the particles and the binder material; depositing the agglomerates onto the porous walls of the plugged honeycomb body; wherein the deposited agglomerates are disposed on, or in, or both on and in, the porous walls.

Methods of making honeycomb bodies having inorganic filtration deposits

Filtration articles herein exhibit excellent filtration efficiency and pressure drop before and after water durability testing. The articles comprise: a honeycomb filter body; inorganic deposits disposed within the honeycomb filter body at a loading of less than or equal to 20 grams of the inorganic deposits per liter of the honeycomb filter body. The inorganic deposits are comprised of refractory inorganic nanoparticles bound by a high temperature binder comprising one or more inorganic components. At least a portion of the inorganic deposits form a porous inorganic network over portions of inlet walls of the honeycomb filter body.

An aqueous cell culture medium composition includes an aqueous cell culture solution configured to support the culture of mammalian cells. The composition further includes a synthetic polymer conjugated to a polypeptide dissolved in the aqueous cell culture solution. The synthetic polymer conjugated to a polypeptide is configured to attach to the surface of a cell culture article under cell culture conditions. Incubation of the aqueous cell culture medium composition on a cell culture surface under cell culture conditions results is attachment to the surface of the synthetic polymer conjugated to the polypeptide.

Synthetic attachment medium for cell culture

Green ceramic mixtures include at least one inorganic component, at least one organic binder, and a stable emulsion including at least one lubricant, at least one aqueous solvent, and at least one emulsifier. Methods for forming ceramic bodies include forming a green ceramic mixture including a stable emulsion and extruding the green ceramic mixture. The methods and green ceramic mixtures can be used to produce green and fired ceramic bodies.

Green ceramic mixtures comprising a stabilized emulsion and methods for forming a ceramic body

Disclosed is a honeycomb support structure comprising a honeycomb body and an outer layer or skin formed of a cement that includes an inorganic filler material having a first coefficient of thermal expansion from 25 C to 600 C and a crystalline inorganic fibrous material having a second coefficient of thermal expansion from 25 C to 600 C. Skin cement composition controls level of cement liquid/colloid components, for example water, colloidal silica, and methylcellulose migration into the substrate during the skin application process to form barrier to skin wetting and staining during the washcoating process.

Honeycomb structure comprising a cement skin composition with crystalline inorganic fibrous material

A laser weldable device housing substrate, device housing and related method are provided. The substrate includes a first surface, a second surface opposite the first surface, and a thin inorganic particle layer supported by the first surface. The inorganic particle layer includes a plurality of particles arranged in a layer on the first surface. The particles have an average diameter of less than or equal to 1.0 &#x3bc;m, and the inorganic particle layer has an average thickness of less than or equal to 5 &#x3bc;m.

Sealed device housing with particle film-initiated low thickness laser weld and related methods

Disclosed herein are green bodies comprising at least one ceramic-forming powder; at least one binder; and at least one cross-linked starch present in an amount of at least about 20% by weight as a super addition. Further disclosed herein is a method of making a porous ceramic body comprising mixing at least one ceramic-forming powder, at least one solvent such as water, at least one binder, and at least one cross-linked starch present in an amount of about 20% by weight as a super addition to form a batch composition; extruding the batch composition to form a green body; drying the green body; and firing the green body to form a porous ceramic body. Also disclosed herein are methods of screening a green body for making a porous ceramic body.

Crosslinked starches for pore forming in ceramics

A snow and ice melting device having an insulated chamber a heater located inside the insulated chamber a reservoir located at the distal end of the insulated chamber a pump operationally connected to the reservoir a snow port located at the proximal end of the insulated chamber the snow port comprising a body and a portal between the body and the insulated chamber and a power supply connected to the heater and the pump.

Snow melter machine

A ceramic precursor batch composition comprising inorganic ceramic-forming ingredients, a binder, an aqueous solvent and a heteroatom polyol agent. The heteroatom polyol agent can be represented by X(R) where X is at least one of S, N, and P, and R is at least two of CH, CHCHOH, CHCHCHOH, CH(CHOH)CH, C(CHOH), CHOH, CH(CHOH)CHOH, C(O)(CHOH)CHOH, and CHCHCHOCH. The presence of the heteroatom polyol agent provides a composition with a lower viscosity and/or a greater batch stiffening temperature (T) allowing for increased rates of extrusion. Methods for producing a ceramic honeycomb body using this ceramic precursor batch composition are also provided.

Ceramic precursor batch compositions for increased stiffening onset temperature using organic additive heteroatom polyols

A method for inhibiting oxygen and moisture degradation of a device and the resulting device are described herein. To inhibit the oxygen and moisture degradation of the device, a low liquidus temperature (LLT) material which typically has a low low liquidus temperature (or in specific embodiments a low glass transition temperature) is used to form a barrier layer on the device. The LLT material can be, for example, tin fluorophosphate glass, chalcogenide glass, tellurite glass and borate glass. The LLT material can be deposited onto the device by, for example, sputtering, evaporation, laser-ablation, spraying, pouring, frit-deposition, vapor-deposition, dip-coating, painting or rolling, spin-coating or any combination thereof. Defects in the LLT material from the deposition step can be removed by a consolidation step (heat treatment), to produce a pore-free, gas and moisture impenetrable protective coating on the device. Although many of the deposition methods are possible with common glasses (i.e. high melting temperature glasses like borate silicate, silica, etc.), the consolidation step is only practical with the LLT material where the consolidation temperature is sufficiently low so as to not damage the inner layers in the device.

Method for inhibiting oxygen and moisture degradation of a device and the resulting device

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

Growing community of inventors

Horseheads, NY, United States of America

Mark Alan Lewis