The present invention relates to an optical fiber cable (100) including one or more optical fibers (102), one or more tubular structures (104), a sheath (106) surrounding the one or more tubular structures (104) and a plurality of strength members (108) partially embedded in the sheath (106). In particular, each tubular structure (104) has at least one optical fiber. Moreover, the plurality of strength members (108) in the optical fiber cable (100) are n+1, where n is an even integer.

The present invention relates to an optical fiber composite ground wire using a composite material. More particularly, the present invention relates to an optical fiber composite ground wire using a composite material, which has simple structure, light weight, improved tensile strength, and reduced electrical resistance.

Technology for securing a line, such as a fiber optic line, to a structure, such as a utility pole. In one aspect, a clamp is provided. The clamp includes a body, a first nub located at a first position on the body, and a first receptacle located at a second position on the body, wherein the first receptacle is connectable with a second nub that is secured to a pole-mount, and the first nub is connectable with a second receptacle that is secured to an aerial drone.

A self-supporting overhead telecommunication/power cable includes a supporting portion and a transmission portion mutually arranged according to a figure-8 configuration. The transmission portion includes at a central position thereof, an optical fibre conductor and, at a radially outer position with respect to the optical fibre conductor, electrical conductors stranded around the optical fibre conductor. Preferably, the electrical conductors are grouped into sub-units which are stranded around the optical fibre conductor to provide a mechanical protection thereto.

A cable assembly with electrical conductors and fiber optic lines includes a hybrid cable, electrical tethers, a fiber optic tether, and a joining location thereof that includes a shielding unit establishing an electrical contact between shielding of the hybrid cable and shielding of the respective electrical tether cables. The shielding unit includes a central body of an conductive material surrounding the hybrid and tether cables at the joining location, where the central body is in electrical contact with the shielding of the hybrid cable and with the shielding of each electrical tether.

The present invention relates to an optical fiber composite ground wire using a composite material. More particularly, the present invention relates to an optical fiber composite ground wire using a composite material, which has simple structure, light weight, improved tensile strength, and reduced electrical resistance.

Aspects of the present disclosure describe aerial fiber optical cable localization using distributed acoustic sensing (DAS) that advantageously may determine the locality of electrical transformers affixed to utility poles along with the aerial fiber optical cable as well as any length(s) of fiber optical cable between the poles. Further aspects employ survey manned or unmanned, aerial or terrestrial survey vehicles that acoustically excite locations along the fiber optical cable and associate those DAS excitations with global positioning location (GPS).

A passive optical network includes a central office providing subscriber signals; a fiber distribution hub including an optical power splitter and a termination field; and a drop terminal. Distribution fibers have first ends coupled to output ports of a drop terminal and second ends coupled to the termination field. A remote unit of a DAS is retrofitted to the network by routing a second feeder cable from a base station to the hub and coupling one the distribution fibers to the second feeder cable. The remote unit is plugged into the corresponding drop terminal port, for example, with a cable arrangement having a sealed wave division multiplexer.

An apparatus implements a cable distribution module. The apparatus includes a trunk cable with inner cables and includes breakout cables that correspond to the inner cables. The apparatus further includes a transition breakout between the trunk cable and the breakout cables and includes an outdoor rated path that includes the trunk cable, the transition breakout, and the one or more breakout cables. The apparatus further includes connectors to which the breakout cables are connected and an unsealed module supporting the one or more connectors.

A passive optical network includes a central office providing subscriber signals; a fiber distribution hub including an optical power splitter and a termination field; and a drop terminal. Distribution fibers have first ends coupled to output ports of a drop terminal and second ends coupled to the termination field. A remote unit of a DAS is retrofitted to the network by routing a second feeder cable from a base station to the hub and coupling one the distribution fibers to the second feeder cable. The remote unit is plugged into the corresponding drop terminal port, for example, with a cable arrangement having a sealed wave division multiplexer.