Lucent Technologies Inc.

Avaya Technology LLC

At&t Bell Laboratories

Avaya Inc.

At&t Corp.

Commscope Solutions Properties, LLC

Other

Fitel USA Corporation

Avava Technology Corp.

Bassel Hage Daoud

Ivan Pawlenko

David S Kerr

Christopher M Helmstetter

Jason A Kay

Walter Pelosi

Antonio Albino Figueiredo

Larry Samson

Mikhail Sumetskiy

Ronald Marchisin

Adam Stuart Kane

George Andrew DeBalko

Arnel Berton Citurs

Lawrence Marc Paul

Peter F Eckhardt

Michael J Wheeler

George Andrew Debalko

Garth A Newell

Peter Michael Mueller

Richard Franklin Schwartz

John J Burack

Frank P Baker

Anthony Robert Tancreto

Douglas Lewis Cowan

Theodore Edward Kluska

Scott R Andrews

Thelma E Cole

Dieter Scherer

Christopher R Gayle

Thomas Michael Hamilton

Tor Andrew Alden

Raymond Paul Briggs

Claude R Narcisse

Anthony Robert Trancreto

Christopher K Wiese

Neal A Janus

Kevin Luke Massaro

George A Debalko

Douglas N Crouse

Leonard Brian Roach

Christopher E Gayle

Ronald Marchtsin

Techniques for determining how to translate forecast sales data of at least one configuration of assembled product into a forecast schedule of subcomponents composing the assembled product is described. To this end, forecast sales data of at least one configuration of assembled product is received. Usage factors of a plurality of subcomponents composing the assembled product are also received. Each usage factor corresponds to the at least one configuration of assembled product. The forecast schedule of subcomponents composing the assembled product is then composed by applying the usage factors of the plurality of subcomponents to the forecast sales data of at least one configuration of assembled product wherein the forecast schedule includes demand for the subcomponents over time.

Systems and methods for forecasting demand for a subcomponent

A protective enclosure includes one or more walls for surrounding an electronic device. At least one of the walls includes energy absorbing protrusions for absorbing the energies, etc., created when, and if, the electronic device unfortunately explodes due to a lightning strike.

Protective enclosures and related methods

An electromagnetic shielding structure has conductive parts for blocking propagation of electromagnetic interference, whereof at least one has an appendage or an edge configuration that is shaped so as to bite into the edge of the other of the conductive parts, such as along a narrowing groove. The appendage or edge can have a structure resembling an insulation displacement connector, but is arranged to engage the edge of a sheet-like or planar shielding element, as opposed to biting into an insulated wire. The connection achieves both electrical and mechanical connection between the parts, preferably thereby completing at least part of a shielding enclosure.

Electromagnetic shield with vee-slot panel joints

Optical fiber bend limiter that prevents contaminates from entering an optical fiber closure is described. The optical fiber bend limiter has an arcuate portion having a bend radius for limiting a minimum bend of an optical fiber. The bend limiter has a central recess for inserting a wall of an optical closure therein and limiting the minimum bend radius of an optical fiber. The bend limiter also includes peripheral recesses. When desired, the bend limiter is secured to a wall of the optical fiber closure via the peripheral recesses thereby closing the aperture and protecting the optical fibers from contaminants.

Fiber bend limiting device with a dust sealing feature

An optical fiber trough includes a base member having a plurality of latches adapted to secure the optical fiber trough to an optical fiber closure. A retention member extends from the base member. The retention member includes a proximate edge supported by the base member and a distal edge. At least a portion of the distal edge is angled with respect to a plane of the base member.

Optical fiber trough for an optical interconnection system

An optical fiber routing apparatus includes at least one optical fiber splice tray for retaining optical fibers therein, and at least one rack. Each rack includes at least one shelf extending from a rear wall for respectively supporting the at least one optical fiber splice tray. At least one retaining flange is respectively coupled to a front edge of each shelf, and a retaining means is respectively coupled to the rear wall proximate a rear edge of each shelf for retaining an optical fiber tray between the rear wall of the rack and the at least one retaining flange on the front edge of a shelf.

Stackable optical fiber splice tray and mounting shelves

The invention is directed to techniques and mechanisms for measuring transmission loss of a cable comprising the steps of disabling an antenna connected to a second end of the cable, feeding an input signal having an energy level into a first end of the cable for transmission of the input energy toward the second end of the cable, measuring a reflected energy, reflected back toward the first end of the cable from the second end of the cable, and comparing the reflected energy to a input energy to determine a cable loss. Directional couplers may be used to sample the input and reflected energy to be measured. The information derived from the comparison of input and reflected energy measurements can then be used to calibrate a transmitter thereby optimizing performance.

Method and apparatus for measuring the transmission loss of a cable

Apparatus for enclosing a plurality of fiber optic cables in a sealed environment includes a housing, a lid, a hollow body projecting from the housing, at least one grommet disposed in the hollow body for securing one or more fiber optic cables in an orifice accessed by a slit provided therein and a cap disposed in front of the hollow body to compress the grommet and seal components passing through the grommet into the housing. The grommet is a single body with a plurality of orifices for receiving a plurality of fiber optic cables or a plurality of individually formed grommets each having one orifice.

Fiber closure sealing apparatus

An optical fiber closure includes a housing having opposing walls, each of the opposing walls having an aperture defined therein. Each aperture is adapted to receive an optical fiber therethrough. A bend limiter is proximate each aperture. Each bend limiter includes a proximate edge, a distal edge, and an arcuate surface. The arcuate surface extends between the proximate and distal edges and has a radius of curvature greater than a predetermined minimum bend radius. The distal edge of each bend limiter is substantially aligned with an outer edge of a respective one of the opposing walls of the optical fiber closure.

Optical fiber closure having an integrated bend limiting feature

Optical fiber closure having a biased door adapted to cover a portion of an aperture not occupied by an optical fiber. The optical fiber closure has a wall. The wall has an aperture defined therein for receiving optical fibers. The wall also has a biased door adapted to cover a portion of the aperture not occupied by optical fibers.

Automatic sealing mechanism for optical interconnection units

An optical connector assembly is described. In one example, a panel includes a plurality of apertures formed therein. A plurality of receptacles are respectively supported within the plurality of apertures. Each of the plurality of receptacles is adapted to communicate with an optical connector. In addition, each of the plurality of receptacles is disposed at an angle with respect to a plane of the panel, where the angle is less than 90 degrees. In another example, a housing includes opposing side walls. A panel is mounted within the housing. The panel includes a plurality of apertures for supporting optical connectors. A spool is mounted to one of the opposing side walls of the housing.

Optical fiber connection system

Optical ribbon cable fan-out device includes a top cover portion, a fan-out portion and a bottom portion formed as a unitary body. The fan-out portion has an array of guides housing individual fibers of the optical ribbon cable. The top cover portion and bottom cover portion are connected respectively to the fan-out portion by first and second hinges. The top cover portion and the bottom cover portion each have a plate projecting respectively therefrom to secure a ribbon cable in an axis extending longitudinally through the fan-out apparatus. The fan-out portion is so configured that a first portion of the arrayed guides is co-linear with the axis, a second portion of the arrayed guides is above the axis and a third of the arrayed guides is below the axis. The fan-out apparatus defines pathways for individual optical fibers having a bend radius of at least approximately 1.5 inches.

Unitary fan-out device for optical ribbon cables

An optical fiber spice holder, including a base having an upper surface and a plurality of sidewalls coupled substantially orthogonal to the upper surface. Each pair of sidewalls of the plurality of sidewalls forms at least one channel therebetween. The at least one channel has a first radius sized to secure an optical fiber splice, and a plurality of channels are formed adjacent to each other.

Fiber optics splice holder

A heat source is formed within one piece of a multi-piece mold designed to shape a glass tube. The one piece of the mold can then be used as a source of intense heat to render the glass malleable and to also contribute to shaping the tube in conformance with the mold. In one embodiment, the heat source includes channels formed throughout the one piece of mold for distributing a gas therethrough with jets of gas emanating from the inner surface of the mold piece for heating the tube to be shaped to a desired temperature. In apparatus embodying the invention, there is no need for a separate torch and for moving the torch during the shaping process. Also, in accordance with the invention, better control of the heat supplied to the tube being shaped is obtained.

Mold incorporating a heat source and apparatus and method for using such molds

An electromagnetic interference shield comprises a non-rigid porous metallic material and a conforming element. The non-rigid porous metallic material is shaped by the conforming element to have a top and sidewalls extending downward from the top. The shaped porous metallic material defines a cavity for receiving at least one circuit component therein.

Electromagnetic interference shield

Growing community of inventors

Parsippany, NJ, United States of America

Bassel Hage Daoud