Corning Cable Systems

Corning Optical Communications LLC

Ronald Alan Leonard

Terry Lee Cooke

Christopher Shawn Houser

James M Wilson

Wesley Allan Yates

Matthew Wade Smith

Scott Eaker Buff

James McKinnley Wilson

A port tap cable for supporting live optical connections in a fiber optic network includes one or more fiber optic splitters, which each receive an optical signal from a live input optical fiber of a live input fiber optic cable leg. Each fiber optic splitter splits each optical signal and transmits the signal to a live output optical fiber of a live output fiber optic cable leg and a tap output optical fiber of a tap output fiber optic cable leg. The one or more splitters are enclosed in a furcation, thereby forming a port tap cable that allows for monitoring of optical signals within an active fiber optic network without the need for interrupting network operations. This arrangement also allows for monitoring individual ports in an existing network installation.

Port tap cable having in-line furcation for providing live optical connections and tap optical connection in a fiber optic network, and related systems, components, and methods

A combination of a pulling grip assembly and a fiber optic cable assembly for installing the fiber optic cable, including: A method of using the pulling grip assembly and a quick release pulling grip kit for installing fiber optic cable, as defined herein, are also disclosed.

Cable pulling grip having toolless removal

An interconnect assembly includes an optical fiber cable, legs, connectors, and covers. The optical fiber cable includes a jacket and sub-units. The jacket has an interior defining a passage and the sub-units extend through the passage and include optical fibers extending lengthwise through the sub-units. The legs of the interconnect assembly extend from the passage on an end of the jacket, where the legs are continuations of or extensions from the sub-units such that the optical fibers further extend through the legs. The connectors are attached to the optical fibers on distal ends of the legs and the covers are attached to the connectors. The covers each include an end having a track for wrapping one or more of the legs over in order to package the legs and connectors, such as for placement of the legs and connectors within a pulling grip for installation of the interconnect assembly through a duct.

Cable leg and connector management system

Embodiments disclosed herein include furcation plugs having segregated channels to guide epoxy into passageways for optical fiber furcation, and related assemblies and methods. The furcation plugs secure furcated fiber optic cables to fiber optic equipment to prevent the furcated fiber optic cables from being damaged. The furcation plugs, as part of fiber optic furcation assemblies, are typically installed on fiber optic equipment that provides fiber optic components to which the optical fibers are connected. The fiber optic cables may be inserted into fiber passageways of the furcation plugs and secured to the furcation plugs with epoxy. The epoxy may be guided into the fiber passageways through segregated epoxy channels of the furcation plug. In this manner, epoxy may be more uniformly distributed within the fiber passageway to improve the epoxy bonds by reducing the occurrence of air pockets known as voids, which can weaken the epoxy bonds and cause attenuation.

Furcation plugs having segregated channels to guide epoxy into passageways for optical fiber furcation, and related assemblies and methods

A multi-fiber fiber optic connector is configured to include a switchable polarity key that can be used to define first and second polarity configurations for the connector. The connector has a multi-fiber ferrule surrounded by an inner housing. The inner housing has top and bottom recesses sized to accommodate the polarity key. The polarity key is removably secured in either a top or bottom recess using a latching feature. The polarity of the connector can be switched by moving the polarity key from one position in the connector to the other rather than having to disassemble the connector.

Growing community of inventors

Connelly Springs, NC, United States of America

Ronald Alan Leonard