A method for providing tension to a data or power transmission line in a pipe includes inserting a transmission line into a transmission line channel of a pipe. The transmission line has a first end and a second end and is inserted into a first end of the pipe second-end-first and has a first tension-load-supporting mechanism attached to the first end of the transmission line. The method includes applying a first level of tension to the transmission line in the pipe and applying a second tension-load-supporting mechanism to the second end of the transmission line while the first level of tension is applied to the transmission line. The method further includes removing the first level of tension from the transmission line to maintain a second level of tension along the transmission line between the first and second tension-load-supporting mechanisms.

The electrical cover is a flexible, friction-held electrical cover that guards outlets from finish materials such as paint, spackling, and other foreign materials. The frictionally-held finish material electrical covers utilize specifically shaped features on the surfaces, such as negative draft, that contact the electrical components to increase the hold on the electrical device. Some of the shaped features of the frictionally-held covers also help minimize stress in the cover. The electrical covers are shaped with an arched rear surface that assists in minimizing edge warping when the electrical cover is positioned against the wall surface. Features are also molded into the parts to assist and strengthen the cover flatness once installed, and thus protect against the intrusion of finish material behind the cover.

An electronic apparatus includes a chassis and a substrate arranged to face each other, a cable disposed between the chassis and the substrate and having an extra length, and a plurality of clampers formed on the chassis and clamping the cable. The plurality of dampers includes a second damper fixedly clamping the cable and a third clamper movably clamping the cable. The cable is fixed to the chassis by the second damper, and the third damper limits a movable direction and a movable range of the cable in extra length processing of the cable.

An electronic apparatus includes a chassis and a substrate arranged to face each other, a cable disposed between the chassis and the substrate and having an extra length, and a plurality of clampers formed on the chassis and clamping the cable. The plurality of dampers includes a second damper fixedly clamping the cable and a third clamper movably clamping the cable. The cable is fixed to the chassis by the second damper, and the third damper limits a movable direction and a movable range of the cable in extra length processing of the cable.

A wire harness includes a functional exterior component, at least one electric wire, and at least one thread. The functional exterior component is shaped into a sheet. The electric wire is disposed on one main surface of the functional exterior component. With the thread the electric wire is sewn on the functional exterior component.

A wire harness includes a functional exterior component, at least one electric wire, and at least one thread. The functional exterior component is shaped into a sheet. The electric wire is disposed on one main surface of the functional exterior component. With the thread the electric wire is sewn on the functional exterior component.

Systems that are configured to deliver electric power via an indoor telecommunications network infrastructure are provided herein. A system may include a power adaptor that is inside a building and that is electrically connected to an indoor telecommunications network infrastructure that is inside the building. Moreover, the system may include an outdoor network interface apparatus that is outside of the building and that is configured to receive electric power via a wired connection to the indoor telecommunications network infrastructure. Related methods and apparatuses are also provided.

Embodiments disclosed herein includes temperature monitoring in cold supply chains. In this regard, electrical conductors are affixed to containers in respective patterns that enables a set of containers to be arranged in a particular configuration in which the electrical conductors provide electrical connections between electrical conductors and, in aggregate, creates a sensing network that is operable to measure temperature of respective ones of the containers.

Provided is a battery that may include a first terminal or cable, a second terminal or a cable, a thermal fuse configured to connect to the first terminal or cable and the second terminal or cable, a first sleeving layer that is disposed on the thermal fuse, and that is configured to muffle an arc explosion of the thermal fuse and encapsulate molten material generated by the arc explosion of the thermal fuse, and a second sleeving layer that is disposed on the first sleeving layer, and that is configured to encapsulate the molten material generated by the arc explosion of the thermal fuse that penetrates the first sleeving layer. An overcurrent protection system and a sleeving are also provided.

Provided is a battery that may include a first terminal or cable, a second terminal or a cable, a thermal fuse configured to connect to the first terminal or cable and the second terminal or cable, a first sleeving layer that is disposed on the thermal fuse, and that is configured to muffle an arc explosion of the thermal fuse and encapsulate molten material generated by the arc explosion of the thermal fuse, and a second sleeving layer that is disposed on the first sleeving layer, and that is configured to encapsulate the molten material generated by the arc explosion of the thermal fuse that penetrates the first sleeving layer. An overcurrent protection system and a sleeving are also provided.