Abstract:
An article comprises an optical fiber having a first end with a first end surface having a deposited coating only on a portion thereon. The first end can have a frustoconic or tronconic shape. The optical fiber can be utilized as a stub fiber in an optical device, such as an optical connector, receptacle or adapter. The deposited coating can be a wavelength selective multilayer thin film coating. The deposited coating can reflect a selected wavelength of light back to a central office to provide monitoring in a communication network, such as a PON.
Abstract:
Fiber management assembly comprises an optical fiber splitter, a splice holding section having a fiber splice device mounted therein, and a slack storage system. The optical fiber splitter, splice holding section and slack storage system are disposed on one of a tray and an interior surface of an enclosure body. In addition, patch panel tray having a patch panel comprising a plurality of adapters mounted thereon is provided, wherein a bare end of a splitter input fiber is routed via the slack storage system to a first end of the splice device, and wherein pre-connectorized splitter output fibers are routed to different adapters of the plurality of adapters.
Abstract:
A communication enclosure is described that includes an enclosure body having a first body portion and a second body portion. An adapter mounting mechanism is disposed in the first body portion, and a connector adapter mounted into the mounting mechanism that is configured to accept an optical fiber connector. The enclosure includes at least one integrated tool for terminating field mountable optical fiber connectors wherein the at least one integrated tool is disposed on one of the first body portion and the second body portion. In an exemplary aspect, the at least one integrated tool is a connector polishing platform.
Abstract:
A distribution cabling tape comprises a resilient polymeric base sheet having a first major surface and a second major surface, the first major surface having a continuous lengthwise channel formed in a first portion thereof. The tape also includes an adhesive layer disposed on a second and third portion of the first major surface, the adhesive layer capable of adhering to a concrete or asphalt surface, such as a road, curb, or walkway.
Abstract:
An optical connector for terminating a jacketed optical fiber cable comprises a housing configured to mate with a receptacle. The connector also includes a collar body disposed in the housing, the collar body securing, at a first end, a ferrule. The collar body includes a gripping mechanism disposed in a second portion of the collar body. The collar body further includes a buffer clamp configured within a third portion of the collar body, the buffer clamp configured to clamp at least a portion of a buffer cladding of the optical fiber upon actuation. The optical connector also includes a backbone to retain the collar body within the housing. The backbone includes a mounting structure surrounding a central bore at one end of the backbone, the mounting structure having at least one pocket region configured to receive a slit portion of the cable jacket. A fiber connector termination and assembly tool is also provided.
Abstract:
A cable routing system is described. More specifically, described is a cable routing system that includes a main fiber channel configured to receive a drop fiber to allow it to fit within the main fiber channel, where the channel is surrounded by a discontinuous segmented duct, and the duct comprises a continuous flange structure to provide support for the system as it is installed on or fastened to a wall or other generally flat surface.
Abstract:
A cable routing system is described. More specifically, described is a cable routing system that includes a main fiber channel configured to receive a drop fiber to allow it to fit within the main fiber channel, where the channel is surrounded by a discontinuous segmented duct, and the duct comprises a continuous flange structure to provide support for the system as it is installed on or fastened to a wall or other generally flat surface.
Abstract:
Fiber management assemblies, trays and network interface devices for use in telecommunications that incorporate such assemblies and trays are described. Fiber management trays can include integrated slack storage systems and mechanical fiber splice devices mounted into integrated splice holding grooves, where the mechanical fiber splice devices are actuated by a fiber splice actuation mechanism positioned over the mechanical fiber splice device, as are network interface devices incorporating such assemblies and trays.
Abstract:
A cable routing system is described. More specifically, described is a cable routing system that includes a main fiber channel configured to receive a drop fiber to allow it to fit within the main fiber channel, where the channel is surrounded by a discontinuous segmented duct, and the duct comprises a continuous flange structure to provide support for the system as it is installed on or fastened to a wall or other generally flat surface.
Abstract:
An optical fiber connection system (100) for connecting a plurality of optical fibers is described. The connection system comprises a first bare fiber holder (120) comprising a first splice element (160) and a second bare fiber holder (120′) comprising a second splice element (160′). Each of the first and second splice elements (160,160′) comprises a splice body (161) having a first end (160a) and a second end (160b) and a plurality of alternating alignment and clamping channels (165,167) formed in a top surface (161b) of the splice body (161) that extend from the first end to the second end of the splice body. When the first and second bare fiber holders (120,120′) are mated, at least a portion of the alignment channels (165) of the first splice element (160) overlap a portion of the clamping channels (167) in the second splice element (160′) and at least a portion of the clamping channels (167) of the first splice element (160) overlap a portion of the alignment channels (165) of the second splice element (160′) to hold the first and second optical fibers in end to end alignment.