Abstract: A multi-fiber push on (MPO) connector configured to be field assembled after being pushed through a duct may include a ferrule portion configured to terminate fibers of a multi-fiber cable and a sub-assembly portion. The sub-assembly portion may be configured to include an adapter portion that may be configured to be coupled with the ferrule portion, a retaining portion that may be configured to be coupled with the multi-fiber cable, and a biasing portion that may be configured to extend on one or more sides of the fibers of the multi-fiber cable and to couple the adapter portion with the retaining portion. The biasing portion may be configured to apply one or more biasing forces to the adapter portion on one or more sides of the fibers to urge the ferrule portion in a forward direction such that the one or more biasing forces are balanced on such one or more sides of the fibers.

Abstract: A network communication device includes a first output port, a second output port, and a converting circuit. The first output port may be in communication with an input port and may be configured to receive a first reduced-power version of the signal received at an input port. The converting circuit may be configured to receive a second reduced-power version of the signal, down-convert a high-frequency portion thereof, and produce a down-converted signal. The first and the second reduced-power versions of the signals are in the same frequency band. The second output port receives at least a portion of the down-converted signal such that the high frequency portion of the second reduced power version of the signal is attenuated before the signal is transmitted to a subscriber device.

Abstract: A connector includes a body having a central bore and a first grounding contact surface, a post disposed within the central bore and having an outwardly projecting flange configured to produce a first portion of a mating interface, and a conductive coupler. The post portion has a tubular sleeve configured to mechanically and electrically engage a prepared end of a coaxial cable. The conductive coupler has an engagement surface at a first end configured to mechanically and electrically engage an interface port, a lip at a second end configured to produce a second portion of the mating interface, and a second grounding contact surface opposing the first grounding contact surface. The first and second portions are configured to slide along the mating interface to rotate about an elongate axis of the connector. The connector includes a conductive ring disposed between the first and second grounding contact surfaces and configured to produce an electrical path between the body and the conductive coupler.

Abstract: A power-over-Ethernet (“PoE”) controller for selectively controlling supply of a composite Ethernet/DC power signal to a PoE device. The PoE controller may include a control device that may be configured to generate control signals, wherein the control signals may be configured to selectively control supply and non-supply of a composite Ethernet/DC power signal to a PoE device based on the control signals and DC power and Ethernet signals supplied over a coaxial cable so as to enable or dis-enable operation of the PoE device, wherein the PoE device may be configured to receive the composite Ethernet/DC power signal at an Ethernet input port, and wherein the DC power signal may be configured to power operation of the PoE device.

Abstract: A telecommunications box includes a first housing portion, a second housing portion pivotally coupled with the first housing portion, an adapter panel removably coupled with the first housing portion, and an inner cover pivotally coupled with the first housing portion and removably coupled with the adapter panel. The adapter panel is configured to be uncoupled from the first housing so as to be pivotal with the inner cover relative to the first housing portion to a raised configuration that provides a technician with improved access to the adapter panel, and the adapter panel is configured to be uncoupled from the inner cover while remaining coupled with the first housing portion in a stowed configuration.

Abstract: A coaxial connector that may include a connector portion, a coupler portion that may be configured to be coupled with the connector portion, and a post portion that may comprise a forward post portion and a rearward post portion that is configured to form an electrical ground path with the forward post portion during operation of the connector. The forward post portion may comprise a forward post engagement portion that is configured to engage a rearward post engagement portion of the rearward post portion such that the forward post portion and the rearward post portion are fixed relative to each other. The forward post engagement portion may be configured to engage the rearward post engagement portion to provide the electrical ground path between the forward post engagement portion and the rearward post engagement portion so as to provide a ground path that extends from an outer conductor of a coaxial cable through the forward and rearward post engagement portions and to the post portion.

Abstract: A grounding device for maintaining a ground path between a component of a connector and an interface port when the grounding device flexes includes a sealing member configured to form a conductive ground path between a component of a connector and an interface port. The sealing member comprises a sealing portion that is configured to overlie a grounding portion toward a radial direction of the connector when the connector is assembled, and the sealing portion and the grounding portion of the sealing member are configured to flex when a force is applied to the sealing member so as to maintain a ground path between the component of the connector and the interface port when the sealing portion and the grounding portion flex and when a force is applied to the sealing member during operation of the connector.

Abstract: A cable enclosure assembly having a receiving area configured to alternatively receive a cable retainer and a cable adapter so as to permit an opening of the cable enclosure assembly to be alternatively configured as a cable pass through and an adapter port, includes: a base; a receiving area in the base. The receiving area is configured to receive a cable retainer that comprises a first portion and a second portion connected by a pivot portion; the cable retainer comprises a first exterior surface and a second exterior surface that are configured to contact the receiving area; the receiving area is configured to receive a cable adapter; and the receiving area is configured to alternatively receive the cable retainer and the cable adapter so as to permit an opening of the cable enclosure assembly to be alternatively configured as a cable pass through and an adapter port.

Abstract: An assembly for a coaxial connector is described. The assembly, in one embodiment, includes a coupler, a grip ring and a seal member.

Abstract: A cable system component includes a housing having a seal-grasping surface portion and a seal having an elastically deformable tubular body attached to the housing. The body has a posterior sealing surface that cooperatively engages the seal-grasping surface portion of the housing and a forward sealing surface configured to cooperatively engage an interface port. The forward sealing surface includes a radially inner facet divided into a forward portion and a rearward portion by an inner annular groove in the inner facet. The seal includes an anterior portion and a posterior portion connected by a thinned neck portion, the forward portion of the radially inner facet is on the anterior portion, and the rearward portion of the radially inner facet is on the posterior portion.

Abstract: An ethernet bridge mounting arrangement includes a housing including a cover portion and a back portion and a wall mount. The housing is configured to be coupled with the wall mount, and the housing is rotatable relative to the wall mount about an axis that extends in a direction perpendicular to a rear surface of the housing between a first rotational orientation, where latching members extending from the housing can be received by and removed from latch openings in the wall mount, and a second rotational orientation, where the housing is prevented from being pulled away from the wall plate.

Abstract: A system for communicating wireless signals over a cable network includes a wireless over cable (WoC) amplifier configured to communicate wireless frequency band signals with a modem. The system may also include a WoC splitter configured to communicate the wireless frequency band signals with the WoC amplifier directly or via one or more cables, and a WoC adapter configured to receive the wireless frequency band signals from the WoC splitter via one or more cables, and transmit the wireless frequency band signals wirelessly to one or more wireless communication devices.

Abstract: A passive entry adapter system includes an external band rejection filter connected to an external network; an entry adapter connected to the external band rejection filter, an input port connecting the entry adapter to the external network; a directional coupler connected to the input port; a frequency-based signal separation device connected to a first terminal and comprising a high-pass terminal, and a low-pass terminal; a splitter connected to the high-pass terminal, where the splitter is configured to be connected to one or more first types of devices; and a broadband output port connected to a second terminal of the directional coupler. The broadband output is configured to be connected to one or more second types of devices. The entry adapter and the external band rejection filter are configured to prevent signals from a frequency band associated with in-network communications produced within an internal network from reaching the external network.

Abstract: A connector is configured to terminate an end of a coaxial cable. The connector includes a body, a nut, an outer conductor engager, and a grounding member. The body has a cable receiving end configured to receive the end of the coaxial cable, and the nut is configured to be coupled with and to rotate relative to the body. The outer conductor engager is configured to receive a conductive layer of end of the coaxial cable, and the grounding member is configured to couple the body, the nut, and the outer conductor engager in an assembled configuration. A first end of the grounding member is configured to extend grounding of the coaxial cable from the outer conductor engager to the nut, and a second end of the grounding member is configured to grip an outer protective jacket of the coaxial cable to prevent removal of the coaxial cable from the connector.

Abstract: A compartmentalized enclosure for controlling access to different components in a telecommunications system including a lower housing member shaped to define an outer perimeter portion and a cavity, a panel member configured to move between a closed panel position, where the panel member prevents access to equipment within the cavity, and an open panel position, where the panel member permits access to the cavity, wherein the panel member is disposed in the cavity of the lower housing member, and is shaped to define a inner perimeter portion that is configured to substantially match and fit within the outer perimeter portion of the lower housing member so as to form a substantially perimeter matching portion that prevents access to equipment within the cavity between the inner perimeter portion and the outer perimeter portion when the panel member is in the closed position.

Abstract: A connector includes a body having a cable receiving end configured to receive the end of the coaxial cable, a coupler configured to be coupled with and to rotate relative to the body, and a compression ring including a forward sleeve portion and a rearward outer ring portion attached to one another by a plurality of tabs. The forward sleeve portion is configured to be coupled to the cable receiving end of the body, and the plurality of tabs are configured to shear so as to separate the rearward outer ring portion from the forward sleeve portion when a desired force is met as the compression ring is moved relative to the body. The rearward outer ring includes an inner opening when separated from the forward sleeve portion, the separated rearward outer ring is configured to be slidingly moved relative to the body and the coupler, and the inner opening is configured to fit over the coupler such that the rearward outer ring is configured to be a torque assist member.

Abstract: A cable splitter module includes a housing and a connection portion at a side of the housing. The housing has a length extending along a longitudinal axis of the housing, a width extending transverse to the longitudinal axis along a width axis, and a stacking axis that is perpendicular to the longitudinal axis and to the width axis. The connection portion comprises a wall portion, a tab portion that is configured to project from the wall portion, and a slot portion that is configured to extend substantially parallel to the longitudinal axis of the housing. The connection portion is configured to connect to an adjacent receiving member that includes a slot portion that is similar to the slot portion in the connection portion and is configured to extend substantially parallel to the longitudinal axis.

Abstract: A cable connector including: a body; a nose having a forward nose portion, a rearward nose portion that is configured to be coupled with the body, and a recessed nose portion; a coupler configured to be coupled with the forward nose portion; a conductor configured to be supported in the body and the nose portion; and a biasing portion configured to be received in the recessed nose portion. The coupler is configured to be rotatably coupled to the nose; and the biasing portion is configured to biasingly provide an electrical ground path between the nose and the coupler so as to improve an electrically conductive connection between an outer conductor of a coaxial cable and the coupler when the coupler is not connected to an interface port, when the coupler is loosely coupled to the interface port, and when the coupler is fully tightened to the interface port.

Abstract: A network communication device includes a first output port, a second output port, and a converting circuit. The first output port may be in communication with an input port and may be configured to receive a first reduced-power version of the signal received at an input port. The converting circuit may be configured to receive a second reduced-power version of the signal, down-convert a high-frequency portion thereof, and produce a down-converted signal. The first and the second reduced-power versions of the signals are in the same frequency band. The second output port receives at least a portion of the down-converted signal such that the high frequency portion of the second reduced power version of the signal is attenuated before the signal is transmitted to a subscriber device.

Abstract: An access control device for permitting access to a coaxial cable component while selectively blocking access to a fiber optical component including an access control panel member configured to be coupled to a coaxial cable component while blocking access to a fiber optical component, the coaxial cable component configured to be coupled to a coaxial cable and an optical fiber configuration base member configured to be coupled to an optical fiber component and to arrange the optical fiber component so as to create a peripheral optical fiber cable path around a portion of the optical fiber component.