Commscope Technologies LLC

Commscope Connectivity UK Limited

Commscope Connectivity Belgium Bvba

Tyco Electronics UK Ltd

Tyco Electronics Raychem Bvba

Arris Enterprises LLC

Commscope Telecommunications (shanghai) Co. Ltd.

Outdoor Wireless Networks LLC

David James Mather

Joseph Christopher Coffey

Erik James Gronvall

Kristof Vastmans

Jan Jozef Julia Maria Erreygers

Ian Miles Standish

Stephen Lambourn

Joris I Franckx

David Thomas Brown

William Atley Weeks

Robert Neil Shaddock

David Thomas

Thomas F Craft, Jr

Rudy Musschebroeck

Joshua M Simer

John Michael Hulse

David Thomas Lambert

Kristof Johan Jeuris

Peter Baston

David Nicolas Atkinson

Jan Watté

Salvatore Tuccio

John Charles Chamberlain

Olivier Hubert Daniel Yves Rousseaux

Thierry Mike Declerck

Alan Cook

Junkai Wang

Vivek Panapakkam Venkatesan

Saurav Kumar

Peter Merlo

Ian Miles Standsih

Lee Holloway

David T Lambert

Joshua Simer

Jr Thomas F Craft

David Brown

Joris Franckx

Optical wavelength division multiplexing (WDM) devices include an optical chip having a number of waveguides therein, with a common optical fiber and single wavelength channel optical fibers optically coupled to the waveguides. Wavelength sensitive filters are disposed between the chip and the fibers, or across waveguides within the chip to reflect light at certain wavelengths and to transmit light at other wavelengths. In some embodiments, all of the fibers are located at the same end of the chip, in others the common fiber is located at one side of the chip and the single channel fibers located at another side, while in others the common fiber is located at a first side of the chip and the single channel fibers are located either at the first side of the chip or at a second side of the chip.

Integrated optical wavelength division multiplexing devices

Components and arrangements for managing wave division multiplexing (WDM) filters of fiber optic networks. A flexible a substrate is used to fix a fiber routing scheme that corresponds to a cascading arrangement of WDM filters. The WDM filters can be packaged as a standalone unit for easier handling and splicing of fiber pigtails to the pre-arranged fiber routing scheme.

Devices and optical fiber routing arrangements for wave division multiplexing equipment

A power and data connectivity micro grid includes a first power sourcing equipment device having first and second power ports and first and second data ports, and configured to deliver DC power signals to the first and second power ports. The micro grid further includes first and second remote distribution nodes, and first and second splice enclosures, each splice enclosure having a power input port, a data input port, a power tap port, a data tap port, a power output port and a data output port. A first composite power-data cable is coupled between the first power port and the first data port of the first power sourcing equipment device and the power input port and the data input port of the first splice enclosure. A second composite power-data cable is coupled between the second power port and the second data port of the first power sourcing equipment device and the power input port and the data input port of the second splice enclosure. The power tap port and the data tap port of the first splice enclosure are coupled to a power input port and a data input port of the first remote distribution node, respectively.

Plug-in power and data connectivity micro grids for information and communication technology infrastructure and related methods of deploying such micro grids

Embodiments include a power distribution access network comprising power sourcing equipment (PSE) having a hybrid power-data port and at least one remote distribution node coupled to the PSE. The PSE delivers power at a first voltage to the distribution node and the distribution node delivers power at a second voltage to a remote device. Delivery of power to the distribution nodes may be based on information from the distribution node. Other embodiments include a power distribution access network with remote distribution nodes daisy-chained together by hybrid power-data cables so that a power line and a plurality of optical lines pass along the distribution nodes. The optical lines sequentially drop off along the chain and a remainder of the optical lines is indexed at each distribution node. Remote powered devices are coupled to the distribution nodes. Each remote powered device receives power and optical signals from the respective remote distribution node.

Systems and methods for high capacity power delivery to remote nodes

Signal distribution arrangements are assembled by selecting a terminal body and a tap module combination that provides the desired signal strength at the intended position in an optical network. Each terminal body includes an input connection interface, a pass-through connection interface, a module connection interface, and multiple drop connection interfaces. Each tap module houses an optical tap having an asymmetric split ratio. Most of the optical signal power received at the signal distribution arrangement passes to the pass-through connection interface. A portion of the optical signal power is routed to the drop connection interfaces (e.g., via a symmetrical optical power splitter). The tap module and terminal body combination are selected based on the desired number of drop connection interfaces and to balance the asymmetric split ratio with the symmetric split ratio.

Separator modules for terminal bodies

A converter module comprises a housing; a fiber optic connector integrated with the housing, wherein the fiber optic connector is configured to mount directly to a fiber optic connector in a service terminal; a single electrical connector configured to couple to a metallic medium; and an optical-to-electrical (O/E) converter located in the housing and coupled to the fiber optic connector and the single electrical connector, the O/E converter configured to convert between optical frames communicated via the fiber optic connector and electrical signals communicated via the metallic medium.

Optical network converter module

Switching technology may be incorporated into various systems, components, and/or architectures in a fiber optic network to promote network reconfigurability and design flexibility. A signal access unit comprises an input, an output, an access port, a switch arrangement including a switch, and a controller. The switch optically couples the input to the output and not to the access port when in a first configuration, and optically couples the access port to at least one of the input and the output without optically coupling the input and the output together when in a second configuration. The controller is configured to receive an indication of a selected wavelength and to operate the switch arrangement to change the switch between the first and second configurations based on the indication of the selected wavelength.

Reconfigurable optical networks

Systems and methods for automated broadband distribution point unit powering are provided. In one embodiment, an upstream service disconnect unit comprises: a processor; a relay control; and a switching relay coupled to a upstream service delivery unit, a first end of an electrical conductor span, and a access network distribution point unit that is coupled to an optical fiber network, wherein a second end of the electrical conductor span is coupled to a customer premises equipment DSL modem; wherein the upstream service disconnect unit is configured to energize the processor, the relay control, and the switching relay and to operate the switching relay to couple the electrical conductor span with the access network distribution point unit by tapping power of a trigger signal drawn from the electrical conductor span.

Systems and methods for automated broadband distribution point unit powering

A single line converter module comprises a housing; an environmentally hardened fiber optic connector located in the housing and configured to be optically coupled to a service terminal for receiving downstream optical frames; a single electrical connector located in the housing and coupled over a metallic medium to a network terminal providing a service to respective customer premise equipment (CPE); and an optical-to-electrical (O/E) converter located in the housing and configured to convert the downstream optical frames to an electrical signal for transmission over the metallic medium to the network terminal.

Single line passive optical network converter module

A connection assembly () includes a base structure (); a backplane () coupled to the base structure (), the backplane () including a first circuit board (); and a tray module () configured to couple to the backplane (). The tray module () includes a tray body () including a second circuit board (); and a bridge member () to which the tray body () is moveably coupled. The tray body () moves relative to the backplane () while the bridge member () remains stationary relative to the backplane (). Managed connectivity components () on the second circuit board () remain connected to the first circuit board () even while the tray body () is pivoting relative to the backplane ().

Managed connectivity in optical distribution frame

Growing community of inventors

Altrincham, United Kingdom

David James Mather