US Conec Limited

Corning Cable Systems

International Business Machines Corporation

Siecor Operations, LLC

Other

Hewlett Packard Enterprise Development LP

Corning Research & Development Corporation

Tyco Electronics Corporation

Digital Optics Corporation

US Conec Lid.

Darrell Randolph Childers

Jason Higley

Jillcha Fekadu Wakjira

Michael E Hughes

Craig Miller Conrad

Mitchell Cloud

Myron W Yount

Daniel D Kurtz

Joseph P Howard

Hiep V Nguyen

Russell J Granger

James Phillip Luther

Hieu Vinh Tran

Brian J Gimbel

Brent D Henley

Eric Childers

Arnold Deal, Iii

Dirk Eric Schoellner

Ke Wang

Paul Kessler Rosenberg

Tymon Barwicz

Terry Lee Cooke

Thomas Theuerkorn

Stuart Reams Melton

George Panotopoulos

Kent Devenport

Cecil D Hastings, Jr

Eric Kent

A John McDonald

Dennis Michael Knecht

Paul Francis Fortier

Alexander Janta-Polczynski

Stephan L Martel

Jerome Bougie

Timothy S Laws

Sherri Reed

Brian Pruett

Mike Elbert Hughes

David Lee Dean, Jr

Alan Frederic Benner

Sherrh Clint Reinhardt

Joseph L Graham

Shelly Ann Buchter

Kolton Baer

Scott Mendenhall

Lisa Hart

Jeffrey R Elledge

Joel Christopher Rosson

Robert K Mullady

William Hudson Welch

Michael Lawrence Gurreri

James E Morris

Michael Aaron Kadar-Kallen

Lou Castagna

James David Kevern

Shubhrangshu Sengupta

Dirk Schoellner

John H Fox

David Thomas Underwood

Matthew A Brown

D J Hastings

Yefim Gorelik

Dan Kurtz

Joe Howard

Patricia Lee

Charles L Bass, Iii

Dj Hastings

A John Mcdonald

An optical interconnect assembly includes a pre-terminated trunk cable assembly with a cable bundle having a plurality of optical fiber trunk cables terminating in ribbonized groups of optical fiber and a plurality of terminated small form factor fiber optic connectors for inclusion in a pulling sock attached to the plurality of optical fiber trunk cables. Each of the connectors has a push-pull stick with a pair of side latches on opposing sides of the central portion, a ferrule push, a housing configured to engage the push-pull stick and the ferrule push, a miniature multi-fiber ferrule, and a dust cap. The components are provided inside the pulling sock with at least one additional one of the plurality of terminated small form factor fiber optic connector identical to the first small form factor fiber optic connector.

Data center interconnect for optical trunk cables having miniature multi-fiber ferrules

A new boot for a fiber optic connector has a ribbed back portion, a center portion, and a forward extending portion that can be used to insert and remove the fiber optic connector to receptacle. The ribbed back portion has grasping elements and is connected to the center portion. The center portion is removably connected to a crimp body that is in turn connected to the connector housing. The front extension is connected to the fiber optic connector and also provides a keying feature depending on the side of the fiber optic connector on which it is installed.

Flexible push-pull boot

An optical connector assembly (OCA) includes a connector housing to maintain alignment between optical components housed within the OCA and photoelectric converters on an optoelectronic substrate (OES) assembly. The optical components include a ferrule and an optical cable. The ferrule is optically coupled to the optical cable. The OCA includes a ferrule holder to hold the ferrule within the OCA, and a spring located between the connector housing and the ferrule holder. The spring is to apply a separating force between the ferrule holder and the connector housing. The OCA includes a gasket coupled to the connector housing. The coupling of the connector housing to a socket compresses the gasket to provide a seal between the connector housing and the socket.

Optical connector assembly connectorized for non-permanent attachment to an optoelectronic substrate assembly

A multi-fiber ferrule has a main body with a top portion and a bottom portion, the top portion includes a top cut-out therein to form a first forward facing surface to engage a housing of a fiber optic connector. The top cut-out extends rearwardly from the front end. The bottom portion also has a bottom cut-out portion forming a second forward facing surface to engage the housing of the fiber optic connector, the bottom cut-out also extending rearwardly from the front end. The multi-fiber ferrule also includes an end face at a front end of the main body, and a rear face at a rear end of the main body. There is a rear central opening that extends into the main body from the rear end face and configured to receive at least three optical fibers.

Miniature multi-fiber ferrule

A multi-fiber ferrule has lenses that have different prescriptions to disperse the light emitted from the multi-fiber ferrule. Alternatively, the lens for each individual optical fiber can be moved relative to the optical fiber or the optical fiber opening in the multi-fiber ferrule to cause the laser beam exiting the multi-fiber ferrule to be redirected into a structure that absorbs or blocks the laser.

Multi-fiber ferrule with improved eye safety

A fiber optic connector housing has seating features in an internal opening that coordinate with a flange on a fiber optic ferrule to have a secure and precise position for the fiber optic ferrule. There are at least one pair of ramps that may be attached to an inner connector housing wall and an opening wall. The flange has contacts that engage the ramps, which direct the fiber optic ferrule in a rotational direction as well as a translational direction to a final position. The seating features also ensure the correct position after the fiber optic ferrule has been mated and unmated.

Ferrule seating features for a fiber optic connector

A new fiber optic ferrule has an alignment structure on a surface through which light passes. The alignment structure is preferably in the shape of a dog bone, allowing the alignment structure to align the fiber optic ferrule in a receptacle while reducing the influence of temperature on the alignment.

Alignment structure for a fiber optic ferrule and mechanical-optical interface

A dust plug for use in a pre-populated adapters has a main body having a top wall, a bottom wall, and two opposing side walls extending between the top wall and bottom wall. The dust plug also includes at least one pair of latches in a front portion of the main body and each of the at least one pair of latches may have an increased thickness at a forward end thereof. The area of increased thickness is sized to engage a receptacle in an inner surface of the housing when the dust plug is attached to the housing. Other versions contemplate not having the increased thickness. The dust plug preferably includes a grip at the back end.

Dust plug for adapter pre-populated with MPO housing

A fiber handling tool has a cover to engage optical fibers placed in the fiber handling tool. There may be more than one cover and the covers have at least two elastic elements. There are at least two elastic elements that cooperate to hold the optical fibers and/or cable in place and another elastic element may be used with a door lock that is rotatably attached to the cover. There are also structures for managing the routing of the optical fibers within the tool.

Fiber handling tool with spring loaded doors

A fiber optic ferrule receiver includes a main body that has an opening extending between the front end and the rear end and being defined at least by a portion of internal surfaces of the four sides. A first side in the opening has first tapered surface and a second tapered surface, the first tapered surface reducing the opening between the rear end and a first position and the second tapered surface increasing the opening between the first position and the front end. There is also a second side in the opening and across the opening from the first side, the second side has a third tapered surface and a fourth tapered surface, the third tapered surface reducing the opening between the rear end and a second position and the second tapered surface increasing the opening between the second position and the front end. There is also a first projection extending into the opening from the first side to engage a first portion of the fiber optic ferrule at the first position, and a second projection extending into the opening from second side to engage a second portion of the fiber optic ferrule at the second position.

Fiber optic ferrule and fiber optic ferrule receiver

A guide pin insert for an adapter to align two fiber optic connectors includes a central body having an opening configured to allow two fiber optic ferrules to mate therethrough, the opening having a longitudinal axis therethrough, a first guide pin holder in communication with the opening on a first side of the central body to engage a first guide pin, a second guide pin holder in communication with the opening on a second side of the central body to engage a second guide pin, a third guide pin holder spaced from the first guide pin holder along the longitudinal axis to engage the first guide pin, and a fourth guide pin holder spaced from the second guide pin holder along the longitudinal axis to engage the second guide pin.

Guide pin holder for guide pins in an adapter

A cover for a fiber optic ferrule and ferrule push includes a sleeve extending lengthwise between opposed front and rear ends and defines a lengthwise-extending opening that opens through the rear end for receiving at least a portion of the fiber optic fiber optic ferrule and the ferrule push. The sleeve also includes a top side and an opposing bottom side, and two side walls extending between the top side and the bottom side and along at least a portion of the sleeve. A receiver is disposed in the top side to receive a projection associated with the ferrule push.

Multi-port uniboot connector for multi-fiber plug housings

A new fiber optic connector provides a smaller form factor by including two ferrule assemblies in a housing. The housing accepts a push-pull mechanism that allows for insertion and removal from a carrier as well as an adapter. The push-pull mechanism may also include a flexure member to return the push-pull mechanism. Polarity of the fiber optic connector may also be selected by use of the push-pull mechanism.

Crimp body for mini duplex connector with push-pull polarity mechanism and carrier

A fiber optic connector includes a connector body, a release member attached to the connector body and having a boot latch opening at a rear end, a push-pull boot attached to the release member, and a boot latch attached to the push-pull boot and extending forward and away from the push-pull boot, the boot latch having a first and second side extension and a central head member connected to and at least partially disposed between the first and the second side extensions by at least one flexure member, the boot latch is permanently disposed within the release member after the boot latch is inserted into the boot latch opening as the central head member engages each of the first side extension and the second side extension preventing removal of the boot latch from the release member when push or pull forces are applied to the push-pull boot.

Fiber optic connector push-pull boot with self-locking boot latch

A fiber optic ferrule has a main body having a front end, a rear end, and a top surface and a bottom surface joined together by opposing side surfaces and has a longitudinal axis. There are a plurality of optical fiber support structures disposed between the front end and rear end and configured to receive a plurality of optical fibers. The fiber optic ferrule has an end face at the front end of the fiber optic ferrule through which an optical beam passes. There are also a front facing refractive surface and a rear facing refractive surface, the rear facing refractive surface being closer to the end face than the front facing refractive surface, both being at an angle to the front facing refractive surface.

Ferrule with molded internal tilted refractive surfaces

Growing community of inventors

Hickory, NC, United States of America

Darrell Randolph Childers