Corning Optical Communications LLC

Corning Cable Systems

Corning Research & Development Corporation

Jeffrey Dean Danley

Robert Bruce Elkins, Ii

Darrin Max Miller

Dennis Craig Morrison

Kipp David Yeakel

Zhaoxu Tian

Joel Christopher Rosson

Adra Smith Baca

Rebecca Lynn Burt

Stephan T Toepper

James Phillip Luther

Christopher Paul Lewallen

David Wesley Chiasson

Robert Stephen Wagner

Anthony Sebastian Bauco

Steven Joseph Gregorski

David Allen Thompson

Robert Michael Morena

Thomas Dale Ketcham

Terry Lee Cooke

David Lee Dean, Jr

Daniel Warren Hawtof

Anping Liu

Joel P Carberry

Jeffery Alan DeMeritt

Gregory A Mills

Barada Kanta Nayak

Julie Ann Chalk

Kevin Eugene Elliott

Kevin B Sparks

James Joseph Watkins

Bin Yang

David Matthew Berg

Clyde Benton Mabry, Iii

Paul A Sachenlk

Andrew Stephen Cale

Joel Patrick Carberry

Robert Bruce Elkins Ii

Robert Bruce Ii Elkins

Ii Robert Bruce Elkins

The present disclosure relates to an optical fiber ribbon in which the optical fibers of the optical fiber ribbon are intermittently bonded together at bonding regions along the length of the optical fiber ribbon. The bonding regions of the optical fiber ribbon each include a joining ribbon matrix that have different colors along the length of the optical fiber ribbon.

Intermittently bonded optical fiber ribbon with joining ribbon matrices

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 ferrule bore has a first section extending inwardly from the rear end of the ferrule, a second section extending inwardly from the front end of the ferrule and having a width that is less than the first section, and a transition section located between the first and second sections. The fiber optic connector sub-assembly also includes a bonding agent disposed in at least a portion of both the transition section and the second section of the ferrule bore. At least some of the bonding agent in the second section of the ferrule bore has been melted and solidified.

Fiber optic connector sub-assemblies and related methods

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

A crush resistant, kink resistant optical cable including crush resistant, kink resistant optical fiber buffer tubes and systems and method for making the same are provided. The buffer tubes include a depression pattern formed along the outer surface of the buffer tube. The depression pattern provides areas of decreased thickness in the buffer tube facilitating flexibility and kink resistance. The system and method relates to laser ablation for forming the depression pattern in the buffer tube.

Optical fiber cable with crush resistant, kink resistant buffer tube

A method of forming an optical fiber connector comprises preloading an adhesive plug into a ferrule bore of a ferrule. The ferrule bore extends between a first face and a second face of the ferrule and includes a large diameter bore section extending inwardly from the first face, a micro-hole section extending inwardly from the second face, and a transition section located between the large diameter bore section and the micro-hole section. The adhesive plug: a) is coupled to at least the transition section during the preloading, b) comprises an adhesive composition in a stable form, and c) blocks an entrance into the micro-hole section from the transition section. The method also comprises storing the adhesive plug in the ferrule bore for at least one day without coupling the optical connector to an optical fiber.

Method of forming an optical connector

A method of securing an optical fiber to a ferrule involves heating the ferrule to cause thermal expansion. A ferrule bore of the ferrule increases in diameter as a result of the thermal expansion, and an optical fiber is inserted into the ferrule bore. The ferrule is then cooled so that the ferrule bore decreases in diameter and forms a mechanical interface with the optical fiber. Finally, the optical fiber is fused to the ferrule by irradiating the optical fiber and the ferrule with laser energy.

Methods of securing one or more optical fibers to a ferrule

A method of forming an optical fiber connector is provided. The optical connector includes a body having a passage with a first section extending inwardly from a first face of the body, a second section extending inwardly from a second face from the body, and a transition section located between the first and second sections. The first section of the passage has a first width and the second section of the passage has a second width that is less than the first width. The method comprises loading an adhesive composition into the passage and storing the adhesive composition for at least one day without coupling the optical connector to an optical fiber. The adhesive composition is a meltable, substantially solid material maintained the first passage section, transition section, or both the second passage section and transition section.

A method of terminating an optical fiber involves providing a ferrule having a front end, a rear end, a ferrule bore extending between the front and rear ends, and a bonding agent disposed in at least a portion of the ferrule bore. The method also involves applying energy to heat the bonding agent. An end section of an optical fiber is inserted into the ferrule bore and through the bonding agent when the bonding agent is heated. The end section of the optical fiber includes a primary coating prior to insertion into the ferrule bore. During insertion of the end section of the optical fiber through the bonding agent, the heated bonding agent thermally removes at least a portion of the primary coating during so that the optical fiber can be secured in the ferrule bore with the bonding agent.

Methods of terminating one or more optical fibers

An optical fiber connector preloaded with an adhesive is provided. The optical connector includes a body having a passage with a first section extending inwardly from a first face of the body, a second section extending inwardly from a second face from the body, and a transition section located between the first section and the second section. The first section of the passage has a first width and the second section of the passage has a second width that is less than the first width. An adhesive composition is located within the transition section of the passage and is configured to bind an optical fiber to an inner surface of the second section following melting and solidification of the adhesive composition.

Optical connector with adhesive material

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.

An optical fiber includes a glass fiber, having a cladding and core, surrounded by a polymer coating. Some of the coating is removed by a laser beam so that the optical fiber comprises a first lengthwise portion covered by the coating and a second lengthwise portion where the coating is not present on at least ninety-five (95) percent of an exterior surface of the second lengthwise portion. A microstructure of the polymer coating, adjacent to the second lengthwise portion on the first lengthwise portion, tapers at an angle such that a thickness of the polymer coating decreases toward the second lengthwise portion as a function of proximity to the second lengthwise portion. The optical fiber may also be optionally cleaved with the laser beam.

Optical fibers having coatings removed therefrom and related methods

An optical fiber connector includes a fiber alignment body including a continuous optical fiber guide channel extending therethrough. The continuous optical fiber guide channel has a lead-in channel portion, a lead-out channel portion and a turn portion that connects the lead-in channel portion and the lead-out channel portion. The fiber alignment body has a reflective surface formed of metal that receives light traveling from an optical fiber located within the lead-in channel portion of the continuous optical fiber channel and reflects the light into the lead-out channel portion of the continuous optical fiber channel.

Optical fiber connectors and methods of forming optical fiber connectors

A pre-terminated optical fiber assembly with a ferrule having front and rear opposed faces and at least one fiber bore defined longitudinally therethrough includes a glass optical fiber is disposed within the at least one fiber bore with the fiber fused to the ferrule at a location at least 1 mm deep inside the bore. A method for fusing is also disclosed. The ferruleis desirably composed of an inorganic composite material, the composite comprising a material gradient from at least 75% by volume of a first inorganic material to at least 75% by volume of second inorganic material in the radially inward direction, where the first inorganic material has a fracture toughness of at least 1 MPa&#xb7;m, and the second inorganic material has a softening point of no greater than 1000&#xb0; C., desirably no greater than 900&#xb0; C.

Growing community of inventors

Hickory, NC, United States of America

Jeffrey Dean Danley