Corning Optical Communications LLC

Corning Incorporated

Corning Research & Development Corporation

Corning Cable Systems

Adra Smith Baca

Dana Craig Bookbinder

Micah Colen Isenhour

Darrin Max Miller

Brandon Robert Williamson

Dennis Craig Morrison

Prantik Mazumder

Wageesha Senaratne

Jeffrey Dean Danley

Rebecca Lynn Burt

Pushkar Tandon

David Alan Seddon

Vitor Marino Schneider

Mark Alejandro Quesada

Eric John Mozdy

Todd Parrish St Clair

Manuela Ocampo

Richard Curwood Peterson

Roy Joseph Bourcier

Youchun Shi

Timothy Leonard Hunt

Andrew R Nadjadi

Michael Anthony Lockee

Daniel Aloysius Nolan

Robert Michael Morena

Joel Christopher Rosson

Thomas Dale Ketcham

Steven Bruce Dawes

Anne Germaine Bringuier

Roger A Allaire

Dean Michael Thelen

Ching-Kee Chien

Christopher Mark Quinn

David Neal Schissel

Lin He

Odessa Natalie Petzold

Charles Mitchel Sorensen, Jr

David Eugene Baker

Ming-Huang Huang

Linda Sue Baker

Edward J Sever

Adrienne M Powell-Johnson

Robert Max Sanetick

Lori Ann Seeley

Christine Marie Mahoney Fahey

Cable adapters, connector assemblies, and optical cable assemblies incorporating an integral seal are disclosed. According to one aspect, a cable adapter includes a first end, a second end, and a passageway extending between the first end and the second end. The cable adapter further includes a seal groove within a surface of the second end, at least one opening within the seal groove, wherein the at least one opening is fluidly coupled to the passageway, and a seal within the seal groove. The seal includes a sealing material disposed within the seal groove, the at least one opening, and along an interior surface of the passageway.

Cable adapters with integrated seal, optical connectors, optical cable assemblies, and methods of fabricating the same

The present disclosure relates to a molded ferrule holder that can be coupled to a ferrule eliminating the need for automated injection molding machines and allowing for the use of low cost, low temperature polymers for the ferrule holder materials.

Molded ferrule holder with coupling features for optical fiber connectors

The present disclosure relates to a plasma treatment (under atmospheric conditions or under vacuum conditions) of a jacketed cable comprising a cable jacket and a heat shrink tubing. The plasma treatment improves retention properties of an optical fiber cable assembly by imparting a permanent change on a polymer surface of the cable jacket by cross-linking, leading to eventual graphitization, that can result in a diffusion barrier layer at an interface of the cable jacket and the heat shrink tubing, which prevents or minimizes plasticizer migration and results in an environmental seal (e.g., a long-term water tight seal).

Retained adhesion of a cable-connector using a plasma process

A fiber optic cable assembly includes a fiber optic cable including at least one strength member and a fiber optic connector including a connector body. The assembly also includes a weld collar positioned such that the at least one strength member is at least partially captured between the connector body and the weld collar. The assembly further includes a composite including a portion of the at least one strength member and a portion of at least one of the weld collar or the connector body. A method of coupling a fiber optic cable to a fiber optic connector is also provided.

Fiber optic cable assembly including a composite for retaining strength members and associated method

Described herein are glass substrates having oleophobic surfaces that are substantially free of features that form a reentrant geometry. The surfaces can include a plurality of gas-trapping features, extending from the surface to a depth below the surface, that are substantially isolated from each other. The gas-trapping features are capable of trapping gas below any droplets that are contacted with the surface so as to prevent wetting of the surface by the droplets.

Oleophobic glass articles

A fiber optic connector sub-assembly includes a ferrule having a front end, a rear end, and a ferrule bore extending between the front and rear ends along a longitudinal axis. The fiber optic connector sub-assembly also includes a bonding agent disposed in the ferrule bore and having first and second ends along the longitudinal axis. The bonding agent has been melted and solidified at the first and second ends without there being an optical fiber present in the ferrule bore.

Fiber optic connector sub-assemblies and fiber optic connectors including the same

A fiber optic connector sub-assembly includes a ferrule having a front end, a rear end, and a ferrule bore extending between the front and rear ends along a longitudinal axis. The fiber optic connector sub-assembly also includes a bonding agent disposed in the ferrule bore and having first and second ends along the longitudinal axis. The bonding agent has been melted and solidified at the first and second ends.

Fiber optic connector sub-assemblies including a bonding agent, along with related methods

Fiber optic connectors, connector housings, connectorized cable assemblies, and methods for the connectorization of cable assemblies are provided with particular cable adapter features, adapter extensions, multi-diametrical sealing flexures, subcutaneous sealing elements, and combinations thereof, for improved connector and cable performance, integrity, and durability.

Fiber optic connectors and connectorization employing adapter extensions and/or flexures

A crush resistant optical cable and/or crush resistant optical fiber buffer tube are provided. The cable generally includes a tube having at least one layer formed from a first material and an optical fiber located within a channel of the first tube. The buffer tube is configured to protect optical fibers from crush or impact events through a cushioning action. For example, the first material may be a polymer material having modulus of elasticity of less than 200 MPa, and the layer of the tube acts as a compliant cushioning layer at least partially contacting and surrounding an outer surface of the optical fiber when radially directed forces are applied to the outer surface of the tube.

Optical fiber cable with impact resistant buffer tube

A method of making a fiber optic connector sub-assembly involves: initially disposing a bonding agent in a ferrule bore of a ferrule; heating at least a portion of the ferrule above a melting temperature of the bonding agent so that some of the bonding agent melts; and solidifying the bonding agent that has melted to form the fiber optic connector sub-assembly, all without an optical fiber being disposed within the ferrule bore.

Methods of making fiber optic connector sub-assemblies

An crush resistant optical cable and/or crush resistant optical fiber buffer tube are provided. The cable generally includes a tube having at least one layer formed from a first material and an optical fiber located within a channel of the first tube. The buffer tube is configured to protect optical fibers from crush or impact events through a cushioning action. For example, the first material may be a polymer material having modulus of elasticity of less than 200 MPa, and the layer of the tube acts as a compliant cushioning layer at least partially contacting and surrounding an outer surface of the optical fiber when radially directed forces are applied to the outer surface of the tube.

Fiber optic connector sub-assemblies and related methods

A method of forming an optical communication cable is provided. The cable includes a core element located in a cable jacket. The core element includes a buffer tube having an outer surface, an inner surface and a channel defined by the inner surface of the first tube. The core element includes an optical fiber located within the channel of the buffer tube and a color layer formed from a surface-deposited colorant material applied to the outer surface of the buffer tube.

Optical fiber cable with core element having surface-deposited color layer

According to one embodiment, loose-tube fiber optic cables may include a cable core and a jacket. The cable core may include a buffer tube and an optical fiber and the optical fiber may be positioned within the buffer tube. At least a portion of the buffer tube by include a first phase that includes a first polymer and a second phase that includes a second polymer, where the first polymer and the second polymer are different chemical compositions. The first phase and second phase may be disposed in at least a partially co-continuous microstructure.

Loose-tube fiber optic cables

Growing community of inventors

Rochester, NY, United States of America

Adra Smith Baca