Corning Incorporated

Corning Optical Communications LLC

Corning Cable Systems

Kevin Eugene Elliott

Alejandro Aguilar

Kevin Lee Wasson

Richard Dominic Bomba

Theresa Chang

Patrick David Tepesch

Michael De Jong

John Christopher Thomas

Jeffrey Dean Danley

Darrin Max Miller

Robert John Locker

Xinyuan Liu

Keith Norman Bubb

Timothy Eugene Antesberger

Joseph Henry Citriniti

Michael George Shultz

Craig Alan Strause

Christopher Lane Kerr

Prashanth Abraham Vanniamparambil

Carl Randall Harrison

Dana Eugene Coots

Christina Marie Laskowski

Calvin Jay Winder

Shu Yuan

Neil James Sidebottom

Justin Carl Fossum

Eric Jay Dacheux

Gary Michael Huzinec

A system and method for vibratory cutting, including in the manufacture of ceramic honeycomb bodies. The apparatus includes a transducer configured to generate vibrations with respect to an axial direction. A cutting element is configured to receive and oscillate axially in response to the vibrations. The cutting element has a blade having a width, an axial length, and a thickness. A cutting plane of the blade is defined with respect to the width and the axial length. The blade has opposing side surfaces that extend parallel to the cutting plane. The thickness extends perpendicular to the cutting plane between the opposing side surfaces. A set of fluid bearings are configured to exert fluid pressure on each of the opposing side surfaces to constrain vibrations of the blade oriented in directions transverse to the cutting plane.

Vibratory cutting apparatus and method comprising fluid bearings

Centering apparatuses and methods for precision placement of a product or component, such as a ceramic honeycomb body, prior to a post-production processing steps are provided. In particular, after extrusion of a component or ware, the component or ware oftentimes requires one or more post-production processing steps in order to obtain a final product. The centering apparatuses and methods described herein provide for the precise and accurate centering of the product (or component) prior to performing these post-production processing steps, thereby obtaining repeatable, consistent, high-quality final products.

Centering mechanisms for precision alignment of a component or ware

Methods of manufacturing an extrusion die () having a plurality of pins (-) and a plurality of slots () defined by the plurality of pins, each pin having a base, the method including applying a coating material () over side walls of the bases of the pins of the extrusion die and removing a portion of the coating material coated over the side walls of the bases of the plurality of pins with a cutting tool (). In some embodiments, the cutting tool has a cutting width () equal to a target slot width () of the slots. In some embodiments, applying the coating material over the side walls of the bases of the pins includes overcoating a coating material to a thickness that is greater than a thickness needed to define a target slot width of the slots.

Extrusion dies and methods of manufacturing the same

A method of plugging a honeycomb body is disclosed herein, the method comprising: applying a mask layer to a honeycomb body comprising a plurality of channels; forming a plurality of holes in the mask layer such that the plurality of holes are aligned with the plurality of channels; positioning a nozzle defining an opening proximate the mask layer; moving at least one of the nozzle and the honeycomb body relative to one another; and passing a plugging cement through the opening defined by the nozzle against the mask layer such that the plugging cement passes through the plurality of holes in the mask layer and enters the plurality of channels of the honeycomb body.

Methods of plugging honeycomb bodies

A method of plugging a honeycomb body is disclosed herein, the method comprising: applying a mask layer to the honeycomb body defining a plurality of channels, wherein the mask layer defines a plurality of holes aligned with the plurality of channels; rotating a roller drum; moving the honeycomb body over the roller drum to define a nip between the roller drum and the honeycomb body; and inserting a plugging cement in the nip between the roller drum and the mask layer such that the roller drum forces the plugging cement through the plurality of holes of the mask layer into the plurality of channels of the honeycomb body.

Roller drum plugging of honeycomb bodies

A method of plugging channels of a honeycomb body and a honeycomb body including plugged channels. The method includes applying a shear force to a plugging mixture including a plurality of inorganic particles, clay, and a liquid vehicle to alter the viscosity of the plugging mixture from a first viscosity prior to the vibrating to a second viscosity which is less than the first viscosity. A honeycomb body is placed into contact with the plugging mixture such that a portion of the plugging mixture having the second viscosity flows into the plurality of channels. Application of the shear force is stopped or reduced to increase the viscosity of the portion of the plugging mixture in the plurality of channels to greater than the first viscosity.

Methods of plugging a honeycomb body

A method of plugging a honeycomb body is disclosed herein, the method comprising: contacting a first end of the honeycomb body comprising a plurality of channels with a light curable sealing mixture such that an infiltrate of the light curable sealing mixture flows into the plurality of channels proximate the first end; emitting a light toward a first portion of the infiltrate within the plurality channels of the filter; and curing the first portion of the infiltrate within the channels with the light to form a plurality of seals.

Selective masking and plugging of honeycomb bodies

A method of manufacturing a honeycomb structure includes providing a honeycomb body having a first contour extending between opposing first and second ends and chamfering a corner of the first end in a radial and axial direction toward the first contour to form a second contour. The method further includes removing material in an axial direction toward the second face to form a third contour, chamfering a corner of the third contour in a radial and axial direction toward the second end to form an end contour, and removing material in an axial direction toward the first face to form a fourth contour. Removing material to form the fourth contour substantially removes the second contour and the end contour.

Method for contour shaping honeycomb structures

A fiber optic connector includes a ferrule configured to receive and support one or more optical fibers and at least one component coupled to a surface of the ferrule by an adhesive. The at least one component overlays a footprint area defined on the surface to which the adhesive is applied, and the surface has a plurality of recessed formations within the footprint area to accommodate the adhesive.

Fiber optic connector with adhesive management

Fiber optic modules, fiber optic connectors, and methods are disclosed. In one embodiment, a fiber optic module includes a body and a fiber tray. The body includes a fiber tray recess extending from a first surface, a fiber-end datum surface positioned an end of the fiber tray recess, and a plurality of lens surfaces. The plurality of lens surfaces, the fiber-end datum surface, and intervening portions of the body define a plurality of lenses each having a linear optical axis. The fiber tray includes a plurality of fiber support features disposed on a first surface. The plurality of fiber support features is configured to receive a plurality of optical fibers. The fiber tray is disposed within the fiber tray recess and secured to the body.

Fiber optic modules having a fiber tray, optical-to-optical fiber optic connectors, and methods thereof

A method is provided of fabricating an optical fiber having a polished end face, including providing an optical fiber having an axis; positioning and maintaining the axis A of the fiber, at a specific location along the fiber, at a fixed position; and forming a laser processed end face on the individual fiber at said specific location L by irradiating the individual fiber at said location with one or more laser beams while moving the one or more laser beams in a rotational direction around the fiber. The method may be applied to a jacketed fiber and/or a fiber on a reel. Resulting fibers are also disclosed.

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Horseheads, NY, United States of America

Kevin Eugene Elliott