Abstract:
A signal management system that includes a chassis and a plurality of signal management modules supported by said chassis. Each module has a housing with input and output connectors and electronic circuitry electrically connecting the input and output connectors. One of the input and output connectors is a miniature coaxial connector. Each of the input and output connectors of the modules being connected to cables carrying one of either RF and optical signals.
Abstract:
An optical backplane system is described herein. In one embodiment, an exemplary system includes a backplane to interconnect multiple optical modules, multiple fiber interface modules (FIMs) having a back end inserted into multiple slots of the backplane respectively, each FIM having a front end to receive an incoming fiber carrying incoming optical signals and an outgoing fiber carrying outgoing optical signals from and to an optical network. The back end of the FIM extends the incoming and outgoing fibers to at least one of the multiple optical modules mounted via the backplane without significantly processing of the incoming and outgoing optical signals. Each of the fibers is capable of carrying multiple wavelengths of optical signals. Other methods and apparatuses are also described.
Abstract:
A unit installed in electronic equipment includes a connector configured to connect a transmission line of the electronic equipment, and an access plate where a plurality of the connectors are provided. The access plate is slide-able against the electronic equipment.
Abstract:
An apparatus with a line card having a front panel including at least one input/output port. The apparatus further includes a line card interface assembly. The line card interface assembly includes at least one of an input and output line support, at least one guide vane cooperating with said line, and a front face providing an electrical coupling with said front panel sufficient to attenuate electromagnetic waves passing through the front panel.
Abstract:
The present invention relates to a telecommunications termination panel with a tray pivotably mounted within the front opening of a housing. The tray pivots about a hinge located adjacent one of the sides of the housing and includes a raised floor. The raised floor of the tray cooperates with the side adjacent the hinge and a bottom of the housing to define a cable path from a rear cable access port to an opening on the tray adjacent the hinge. The tray includes a plurality of connection locations and cable management structures to direct a telecommunications cable from the cable access port to a rear of the connection locations without violating bend radius rules. The tray may also include a temporary cable holder to assist in pulling cables through the rear opening into the housing. The present invention further relates to a telecommunications equipment rack with a termination panel with such a pivoting tray mounted to the rack.
Abstract:
A fiber optic circuit provides signal access and monitoring using a set of various switches. The various switches can be remotely controlled using a programmable controller. This controller implements a method for programming and controlling a fiber optic circuit. The fiber optic circuit includes a plurality of signal connection modules, a signal switching network, and a master controller module. The method receiving a circuit configuration command from a remote computing system, retrieving a connection table containing data entries used to specify how the signal connection modules and the signal switching network are to be configured, constructing a module configuration command for each data entry retrieved from the connection table and transmitting the module configuration command to the corresponding module to configure the fiber optic circuit.
Abstract:
A fiber optic telecommunications frame is provided including panels having front and rear termination locations, the panels positioned on left and right sides of the frame. The frame includes vertical access for the rear cables. The frame further includes left and right vertical cable guides for the front patch cables. The frame further includes cable storage spools for the patch cables. The frame includes a horizontal passage linking the left and right panels and the cable guides. A lower portion of the frame defines splice tray holders and a central passage from the splice tray holders to the rear sides of the left and right panels. From a front of each panel, access to a rear of the panel is provided by the hinged panels. Alternatively, the panels can form connector modules with front termination locations and rear connection locations for connecting to the rear cables. The modules can house couplers, such as splitters, combiners, and wave division multiplexers.
Abstract:
An accommodation apparatus facilitates the attachment, exchange, operation, and wire configuration of a plurality of communication devices, such as a media converter, and a power unit. The accommodation apparatus comprises a support part fixed to an external frame, and a loading part, movable relative to the support part. The loading part removably accommodates the communication devices, and includes a first surface and a second surface, wherein the transmission medium can be connected to the communication devices through the first and second surfaces.
Abstract:
A rotatable grommet for opening or closing access to a panel opening. The rotatable grommet is a C-shaped grommet having a grommet opening approximately the same size as the access area of a panel opening. The rotatable grommet includes a post that engages an arched slot formed in the panel. The ends of the arched slot define the open and closed positions for the rotatable grommet. The rotatable grommet includes a handle having handle protrusions that ease rotation of the rotatable grommet. At least one latch establishes friction between the rotatable grommet and the panel opening so that the rotatable grommet will not be inadvertently opened or closed.
Abstract:
Disclosed is a distribution unit which provides means for tracing patch connections. Each module is electrically connected to a shelf controller through a backplane. The shelf controllers are, in turn, coupled to a host computer. Pressing a button on one module lights an LED on that module and on the module which should be connected thereto based on the data base in the host computer.