Commscope Technologies LLC

Commscope, Inc of North Carolina

Ryan E Enge

Michael Gregory German

Matthew R Kiener

LeaAnn Harrison Carl

Patrick Lee Fariello

Thomas Eastham

Lary Blake Van Scoy

Julian Robert Pharney

Andrew P Roberts

Matias Peluffo

G Mabud Choudhury

Ernest C Pickens

Dallas Bartlett

Philip Smith

Masood Shariff

Amid Ihsan Hashim

Scott C Sievers

Richard A Schumacher

Scott Lynn Michaelis

Richard Lee Case

Timothy W Anderson

Wayne D Larsen

Theodore Alan Conorich

Bryan Scott Moffitt

Morgan C Kurk

Richard Y Mei

Danny L Satterthwaite

Jason Bautista

Rishipal Arya

Troy Long

George Brooks

Terry R Cobb

Yinglin Yang

Steven W Knoernschild

Yu Zhong

Malcolm Graham Brown

David Nicholas Atkinson

Jeffrey Sumrall

Marta Beatriz Ripa

Chichuan Lin

Shawn M Clark

One embodiment is directed to a system comprising a portable device executing a mobile application; and a rack controller without a display unit, the rack controller comprising a base unit. The base unit includes a processor configured to execute software that directs the processor to interact with the mobile application to show information and receive user input associated with the rack controller and at least one of rack and patching equipment installed in one or more racks even if there is not a display unit coupled to the base unit. In additional embodiments, a rack controller is configured to determine whether each rack controller interface is connected to another rack controller as a function of a respective sense signal developed by the termination circuit associated with said rack controller interface. Other embodiments are disclosed.

Rack controller with native support for intelligent patching equipment installed in multiple racks

A system for cabling infrastructure that includes at least one port, at least one shutter, at least one sensor and a gateway is provided. The port is configured to be selectively coupled to a connector. Each shutter is configured to have an open state that allows access to an associated port and a closed state that covers the port. Each sensor is configured to sense the open state and the closed state of an associated shutter and generate shutter state signals that include information relating to a current sensed state of the associated shutter and an identification of a port that is associated with the associated shutter. The gateway is in wireless communication with each sensor to receive the shutter state signals. The gateway is configured to communicate the shutter state signals that indicate a change in a state of an associated shutter to a remote location.

Internet of things (IOT) system for cabling infrastructure

In one embodiment, a system for providing port occupancy management for a network connected device that includes a plurality of ports comprises: at least one port status input panel that comprises a plurality of manually operable port occupancy status selector switches, wherein each of the selector switches are associated with one or more of the ports; a control circuit coupled to the port status input panel, wherein the control circuit determines a port occupancy status for each of the ports based on signals initiated by the selector switches; a gateway coupled to the control circuit and configured to aggregate port occupancy status data for the network connected device based on the port occupancy status for each of the ports determined by the control circuit. The gateway executes at least one interface configured to provide the port occupancy status data to a remote system.

Systems and methods for infrastructure configuration management

Port occupancy detection for connector panels is provided. In one embodiment, a connector panel comprises: a communications unit communicatively coupled to a network; and at least one modular port adapter assembly comprising: a plurality of communications couplers; and a plurality of port occupancy sensors each coupled to a sensor circuit. Each of the port occupancy sensors are configured to sense when the couplers are occupied. The panel communications unit obtains from the sensor circuit which of the couplers are occupied. The panel communications unit communicates port occupancy information to a gateway indicating circuit which of the couplers are occupied. A chassis including sidewalls extends between a front and a rear to define an interior, and including guides on the sidewalls. A plurality of blades mounted to the guides of the chassis, each blade including a midplane bus assembly configured to communicatively couple the sensor circuit to the panel communication unit.

Port occupancy detection for high density panels

Systems and methods for automated network cabling integrity monitoring are provided. In one embodiment a system manager for a network that includes a network switch coupled to patching equipment comprises: at least one processor configured to execute software, the software comprising a network integrity monitor. The network integrity monitor controls a cable diagnostic test function to obtain a fault-distance measurement for a port of the switch. The network integrity monitor correlates the fault-distance measurement with network cable length information associated with the switch port to identify one or both of a network cable segment associated with the fault-distance measurement and a fault location. The cable length information is retrieved from a database. The network integrity monitor produces an output identifying of one or both of the network cable segment associated with the fault-distance measurement and the fault location to be displayed on a display device.

Systems and methods for automated network cabling integrity monitoring

One embodiment is directed to a multi-rack rack controller for an automated infrastructure management (AIM) system comprising a plurality of independent patching equipment bus interfaces. Another embodiment is directed to a rack controller comprising at least one rack controller interface configured to connect the rack controller to another rack controller. Each rack controller interface comprises a respective termination circuit. The rack controller is configured to determine whether each rack controller interface is connected to another rack controller as a function of a respective sense signal developed by the termination circuit associated with said rack controller interface. Another embodiment is directed to a rack controller comprising a base unit having a locate button disposed on the front of the base unit. Other embodiments are disclosed.

One embodiment is directed to detecting that a cable has been connected to a port of patching equipment and detecting that the cable is no longer connected to said port. In response to detecting that the cable is no longer connected, information associated with fixed cabling coupled to said port that is captured by a cable tester is downloaded to a controller. The downloaded information is associated with said port and the downloaded information and association information is locally stored at the controller. The locally stored information can then be used to create and/or populate objects in a database. Another embodiment is directed to including a storage device and a wireless interface in patching equipment or other equipment such as an outlet or consolidation point for use in writing information to the storage device and reading information from the storage device via the wireless interface. Other embodiments are disclosed.

Automated capture of information about fixed cabling

Systems and methods for physical cable route tracing are provided. In one embodiment, a cable comprises: one or more of either electrical conductors or optical fibers; a cable sheath around the one or more of either electrical conductors or optical fibers; and a pattern of cable tracing facilitation markings located on an exterior of the cable sheath; wherein the cable tracing facilitation markings comprise either: a visually varying pattern that gradually changes along a length of the cable sheath; or a series of coded markings of an ordered sequence pattern.

Systems and methods for physical cable route tracing

One embodiment is directed to a method of tracking, using an automated infrastructure management (AIM) system, connections made using a breakout cable. The breakout cable comprises a plurality of breakout connectors at a breakout end of the breakout cable. The method comprises identifying a sequence for adding or removing connections involving the breakout connectors of the breakout cable, identifying events associated with adding or removing connections involving the breakout connectors of the breakout cable, and associating the breakout connectors of the breakout cable with added or removed connections based on the identified sequence and the identified events. Other embodiments are disclosed.

Infrastructure management system with support for breakout cables

A new patch cord connection in a communications network may be automatically identified by using a plug insertion/removal sensor to detect the insertion of a first plug into a first connector port of a patch panel. An electrical cable diagnostic test is used to detect an insertion of a second plug into a first connector port on a network device. It may be inferred that a new patch cord connection has been established between the first connector port of the patch panel and the first connector port of the network device based on the consecutive detections of the insertions of the first and second plugs.

Intelligent patching systems and methods using electrical cable diagnostic tests and inference-based mapping techniques

Methods of detecting a plug insertion into a plug aperture of a communications connector are provided in which a control signal is transmitted to a control signal input circuit of the connector that includes a reactive coupling element. The control signal is electromagnetically coupled through the control signal input circuit. The electromagnetically coupled control signal is thereafter detected on a first differential pair of conductive paths that are included in the connector. A determination is made that a plug is present in the plug aperture based at least in part on detecting the electromagnetically coupled control signal on the first differential pair of conductive paths.

Plug insertion detection circuits and related methods and communications connectors

Communications connectors include a housing and a printed circuit board that is at least partially mounted in the housing that has a plurality of conductive paths that are arranged in pairs to form a plurality of differential transmission lines. These connectors further include a plurality of contacts, each of which is electrically connected to a respective one of the conductive paths of the printed circuit board. The printed circuit board further includes at least a first floating image plane that is located between a top surface and a bottom surface thereof, the floating image plane being electrically isolated from the plurality of conductive paths.

Communication connector having a printed circuit board with thin conductive layers

A combination includes: (a) a communications module including: a housing; a printed wiring board mounted within the housing; a plurality of RJ-45 jacks mounted on the printed wiring board and accessible from one side of the housing; and a single module connector mounted to the printed wiring board and electrically connected to the RJ-45 jacks, connector being accessible from a second side of the housing; and (b) a cable-connector assembly including: a cable comprising a plurality of subunits, each of the subunits comprising a jacket and a plurality of twisted pairs of conductors positioned within the jacket; and a single cable connector mounted to the printed circuit board and electrically connected to the conductors of the cable subunits. The module connector is attached to the cable connector.

Datacommunications modules, cable-connector assemblies and components therefor

Growing community of inventors

Carrollton, TX, United States of America

Ryan E Enge