Disclosed are traceable (e.g., networking) cables and cable components (e.g., telltales, switches, and controllers). The disclosed networking cables may be (e.g., indirectly) connected such that signals may be communicated from one cable to another cable. For example, some such cables are configured such that when a switch of one cable is actuated, a controller connected to the switch sends signals to other controllers of the same cable and controllers of other connected cables to activate, inactivate, and/or change the operating mode of telltale(s) of the same cable and/or of other connected cables.

Systems, equipment and methods for automatically tracking cable connections and for identifying work area devices and related methods of operating communications networks are provided. In one embodiment, a method of automatically identifying an end device that is connected to a local area network, the method comprising: transmitting a first control signal over a control channel that runs from a first connector port on a patch panel of the local area network to an integrated circuit chip mounted on the end device through at least a communications cable, a second connector port and a patch cord; receiving a second control signal from the integrated circuit chip over the control channel in response to the first signal, the second signal including identifying information for the end device.

Methods of executing patching connection changes in a patching field are provided in which an electronic work order is received on a display located at the patching field, the electronic work order specifying the patching connection change. A technician may perform the patching connection change. Then, an electronic message may be sent from the patching field indicating that the patching change has been completed.

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.

A rack and patch panel arrangement includes a rack having at least two mounting rails. The rack has a height width and depth. A patch panel is supported on a frame connected to the mounting rails. The patch panel, when mounted on the frame extends horizontally into the depth of the rack.

Communication devices are disclosed. In an example embodiment, a communication device may include a communication module including an illumination source and a body element. The body element may be configured to allow illumination generated by the illumination source to propagate within and illuminate at least a portion of an outer surface of the body element.

Disclosed herein is a light launch device with improved usability and performance. In particular, the light launch device includes an internally housed launch cable and emission connector, a removable faceplate, alternating laser emission, and/or optimized pulse emission. The internally housed launch cable and emission connector facilitate portability and ease of use by consolidating the various components of the light launch device. The removable faceplate is positioned over the bulkhead connected to the input connector of a launch cable assembly to prevent access to the connection during normal use but selectively allowing access for maintenance or launch cable assembly replacement. The alternating laser emissions and/or optimized pulse emission decreases power consumption and/or maintains or improves cable tracing effectiveness.

Enhanced traceability of cables is provided using illumination. An embodiment comprises introducing a chemiluminescent (alternatively, flourescent) solution into a chamber coupled to at least a portion of an insulating jacket that surrounds a transmission medium, the chamber being initially hollow and, in at least a portion thereof, comprised of a substance through which light is viewable, such that upon introduction of the solution through a port, light emitted by the solution is viewable through at least a portion of the chamber. In another embodiment, a first and second compartment contain a first and second substance, respectively, and are physically separated. When an opening is caused in the physical separation, the substances are allowed to mix, the substances being chosen as providing a chemiluminescent reaction upon the mixing, such that light emitted by the chemiluminescent reaction is viewable.

An optically traceable patch cord includes a cable extending from a first connector at a first end to a second connector at a second end. A trace assembly in the cable is located between the first end of the cable and the second end of the cable. An optical tracing fiber extends from the trace assembly to one of the first connector and the second connector.

A connector arrangement includes a plug nose body; a printed circuit board positioned within a cavity of the plug nose body; and a plug cover that mounts to the plug nose body to enclose the printed circuit board within the cavity. The printed circuit board includes a storage device configured to store information pertaining to the electrical segment of communications media. The plug cover defines a plurality of slotted openings through which the second contacts are exposed. A connector assembly includes a jack module and a media reading interface configured to receive the plug. A patch panel includes multiple jack modules and multiple media reading interfaces.