Corning Cable Systems

Corning Optical Communications LLC

Brett A Menke

Jason B Reagan

Kevin Lee Strause

Chanh C Vo

Chois Alven Blackwell, Jr

Kelly J Smith

Terry Dean Cox

John Austin Keenum

Guy Castonguay

Jennifer A Battey

Donnie R Clapp, Jr

Gary Richard Trott

Harley Joseph Staber

Mark Robert Dagley

Rodger Alan Tenholder

Lee Wayne Nored

Antwan J Works

Edward Joseph Reed

Jon P Segelhorst

Carl Randall Harrison

Tuy T Nguyen

Saul L Rodolfo

Donald G Davidson

Gregory Earl McMinn

Jennifer D Burns

Fiber optic cable sub-assemblies having a fiber optic cable including at least one optical fiber attached to a circuit board are disclosed. The circuit board includes an active optical component in operable communication with the optical fiber for forming an active optical cable (AOC) assembly. A strain relief device attaches an end portion of the fiber optic cable to the circuit board, thereby forming the cable sub-assembly. Methods of assembling the fiber optic cable sub-assembly are also disclosed and include the step of attaching an end portion of the fiber optic cable to the circuit board.

Fiber optic cable sub-assemblies with strain-relief to a circuit board and methods of assembling

Apparatus and methods for stripping tight-buffered optical fibers are disclosed. The methods include removing a portion of the buffer layer and thin-coating layer to expose the bare fiber at the optical fiber end, wherein the cuts to the optical fiber needed to strip the optical fiber are made simultaneously. In some methods, a portion of the cover is used to clean the bare fiber as the cover portion is removed. In other methods, the normal force that secures the cover is alleviated so that the cover portion can be removed without breaking the bare fiber. Different apparatus configured to effectuate the stripping methods are disclosed.

Stripping apparatus and methods for tight-buffered optical fibers

An optical connection closure has at least one connector port located within an external wall of the closure for receiving a connectorized optical fiber of a distribution cable on the inside of the closure and a pre-connectorized fiber optic drop cable on the outside of the closure. The closure includes a base, a cover affixed to the base and movable between a closed position and an opened position, and an end wall that defines at least a portion of at least one cable opening for receiving the distribution cable in a butt-type or a through-type closure configuration. The base and the cover define an interior cavity that optionally contains a splice tray for interconnecting the optical fiber of the distribution cable with a pigtail to create the connectorized optical fiber. The connector port may be located within an end wall, a bottom wall or a top wall of the closure.

Optical connection closure having at least one connector port for optically connecting a drop cable to a distribution cable

A multi-port optical connection terminal for use as a branch point in a fiber optic communications network at a distance from a mid-span access location provided on a distribution cable having a plurality of optical fibers. The multi-port terminal includes a base and a cover affixed to the base. A stub cable port formed through one of the base and the cover receives a stub cable having at least one optical fiber extending continuously from the multi-port terminal to the mid-span access location. A first end of the optical fiber is optically connected to a respective optical fiber of the distribution cable at the mid-span access location and a fiber optic connector is mounted upon the second end. At least one connector port is provided on the multi-port terminal for receiving the fiber optic connector and a connectorized end of a fiber optic drop cable extending from the multi-port terminal.

Multi-port optical connection terminal

Optical connection closure having at least one connector port

A housing for a distributed filter removably mounts to a wall plate between the wall plate and a wall-mount telephone without the use of a tool. The housing includes a base and a cover attached to the base that together define a cavity. A filter circuit for filtering voice signals is disposed within the cavity. A phone jack and at least one auxiliary jack are also disposed in the cavity and accessible through the cover. In one embodiment, viewing windows are formed through the cover to permit an installer to view the mounting studs on the wall plate during installation. A slide lock is also provided to secure the housing to the wall plate. In another embodiment, a push-button lock is provided to secure the housing to the wall plate. The push-button is forced outwardly during installation when a mounting stud engages a slot formed in the base and is subsequently depressed to secure the housing to the wall plate.

Tool-less wall-mount distributed filter housing

A high density fiber optic distribution frame includes a frame assembly, one or more left-hand connector module housings mounted on the frame assembly, one or more right-hand connector module housings mounted on the frame assembly and an Interbay Storage Unit (IBU) positioned on the frame assembly medially between the left-hand connector module housings and the right-hand connector module housings. Each connector module housing includes a mounting frame and at least one connector module having at least one fiber optic adapter for interconnecting optical fibers between connector modules on the distribution frame. The connector module is movable between a stowed position wherein the fiber optic adapter is not accessible and a deployed position wherein the fiber optic adapter is accessible. The distribution frame maintains the minimum bend radius of the optical fiber transitioned between connector modules, and reduces the length of a single length jumper employed on the frame.

High density fiber optic distribution frame

Growing community of inventors

Keller, TX, United States of America

Brett A Menke