Abstract: A two-component device for supporting and retaining a cable or wire bundle in a channel comprises support part with a support surface in which is formed an elongate recess for a cable tie. The upper part lifts on to a lower part and it secured to the floor of the channel, by means of rivets or the like. The support part has an integral tie bar extending across the elongate recess. The lower part has a corresponding tie bar extending across it, between opposed side walls of the lower part. With the wire bundle in place, the cable tie is passed around it and through the recess, passing under the respective tie bars and secured at to hold the bundle in place against the support, at the same time holding the two parts of the support together.

Abstract: A contact stud is disclosed. The contact stud has a protector, a connection section, and a base section. The connection section is insertable into a terminal along an insertion direction. The connection section has a contact region protected by the protector from an insulative coating applied to a remainder of the connection section. The base section is mounted on a grounding surface.

Abstract: A solar junction box includes a housing having a base and walls defining a cavity. The base has an opening configured to receive a conductive foil. A power cable is held in the housing having a power terminal terminated to an end of the power cable positioned within the housing. An electronic module is removably received in the cavity. The electronic module has a circuit board including electronic components mounted to the circuit board, a foil contact configured to be removably coupled to the foil, and a power contact configured to be removably coupled to the power terminal. The circuit board has a power circuit electrically connecting the foil contact and the power contact.

Abstract: The present invention relates to an electric switch having a first contact element, an insulating element, and a second contact element. The first contact element includes a first contact surface on which the insulating element is disposed. The second contact element includes a conductive member moveable relative to the first contact element and the insulating element.

Abstract: A Low Voltage, “LV”, network automation system is provided which enables utilities to remotely identify location of LV faults on their networks, isolate these faults and re-energizing the healthy LV circuit by remote control. The hardware for this system is designed to be retrofitted into existing LV switchgears and panels which enables the network changeover to be done cost effectively and with minimum interruption to the network. The system also enables utilities to monitor load flows on the LV networks and identify circuits which are overloaded and gives control room operator options for redistribution of network load where possible.

Abstract: An electrical connector is disclosed. The electrical connector has a first body and a second body. The second body is mechanically coupled to the first body in a coupling state and enters the coupling state through a lateral side of the first body.

Abstract: A connector assembly is provided and includes a connector, a lock, and a spring arrangement. The connector has a housing, a spring arrangement holder, and a plug section. The housing has an upper shell and a lower shell that provide a lock receiving passageway into an interior thereof. The spring arrangement holder is disposed along the lower shell. The plug section is disposed along the lower shell and opposite the spring arrangement holder. The lock is inserted into the lock receiving passageway. The spring arrangement is inserted into the spring arrangement holder.

Abstract: A polymer composition is disclosed. The polymer composition comprises 30 to 40% by weight of a polyester-based thermoplastic elastomer, 15 to 25% by weight of an ethylene acrylic elastomer, and an organic phosphorus-based flame retardant comprising a metal salt of a dialkyl phosphinate.

Abstract: A connector assembly for electrically contacting a blade connector to a second connector The connector assembly includes a blade connector which has a contact surface plane that is electrically connected to the second connector in the mated state. In order to improve mechanical and electrical properties of the overall connector assembly and, in particular, of the blade connector, the assembly further includes a mounting cage in which the blade connector is captively held and which has at least one clamping device that presses the second connector onto the contact surface plane of the blade connector in the mated state.

Abstract: A method for producing a heat-shrinkable product is provided. First, a polymer composition containing a polymer, a crosslinking agent and a micro-encapsulated foaming agent uniformly dispensed therein is melt mixed. The foaming agent has a peak activation temperature which is higher than a temperature of the melt mixing. Next, the polymer composition is injection molded into a molded product. This carried out at the peak activation temperature to activate the foaming agent. Then, the molded product is crosslinked within the mold.

Abstract: A splice kit is provided for repairing a cable having a central conductor, an insulator surrounding the central conductor, an outer conductive sheath surrounding the insulator, and a jacket surrounding the outer conductive sheath. The splice kit includes a central conductor joint that is electrically conductive and is configured to engage the central conductor of the cable such that the central conductor joint defines a portion of an electrical path of the central conductor. The splice kit also includes a dielectric insert configured to at least partially surround the central conductive joint and the central conductor of the cable, and an outer sheath joint that is electrically conductive and is configured to at least partially surround the dielectric insert. The outer sheath joint is configured to be electrically connected to the outer conductive sheath of the cable such that the outer sheath joint defines a portion of an electrical path of the outer conductive sheath.

Abstract: The present invention discloses an alignment system for calibrating a position of an optical fiber (30) in a bore of a ferrule (20), comprising: an outer cylinder alignment element (100) for calibrating a center position of an outer cylinder of the ferrule (20), so that the center of the outer cylinder of the ferrule (20) is aligned with a center of the outer cylinder alignment element (100); a fiber core alignment element (300) comprising a fiber core (302) having a center aligned with the center of the outer cylinder alignment element (100); an optical vision system (411, 412, 421, 422) for identifying a center position of a fiber core (32) of the optical fiber (30) and the center position of the fiber core (302) of the fiber core alignment element (300); and a controlling and moving system for actively adjusting the position of the optical fiber (30) in the bore of the ferrule (20) under the guide of the optical vision system (411, 412, 421, 422), so that the center of the fiber core (32) of the optical fi

Abstract: A system for encapsulating a cable 12 for the purpose of splice closures, breakout closures, jacket repair closures or end capping, in which a casing is fitted around a part of the cable to be sealed, defining within it a cavity surrounding the cable, and a sealant material in the form of a two part acrylic structural adhesive material is injected to fill the cavity and cured in situ. The two part adhesive has a base resin including a methacrylate monomer and a minor part including an oligomeric synthetic rubber and a curative for the monomer, preferably an organoborane accelerator such as an organoborane amine complex, which may be carried by a polyfunctional aziridine. The two parts are preferably mixed at a volume ratio of 2:1 to 15:1.

Abstract: An article and process are described. The article includes a conductive heat-recoverable composite shield or a conductive heat-recovered composite shield formed from a conductive heat-recoverable composite shield. The conductive composite shield and/or the conductive heat-recovered composite shield formed from a conductive heat-recoverable composite shield comprises a non-conductive matrix and conductive particles within the non-conductive matrix. The article has a resistivity of less than 0.05 ohm·cm. A process of producing the conductive heat-recovered composite shield includes extruding the conductive heat-recoverable composite shield and heating the conductive heat-recoverable composite shield thereby forming the conductive heat-recovered composite shield.

Abstract: An electric contact is disclosed. The electric contact has an electric contact section including a plurality of contact springs with different geometrical shapes and a connecting section connected to an electric conductor.

Abstract: A composite coating includes a first layer, a second layer, and a fluoropolymer film disposed on the second layer. The first layer includes a polymer matrix with mica particles dispersed throughout, while the second layer includes a polyether ether ketone (PEEK).

Abstract: One embodiment is directed to a subrack comprising a backplate and at least one tray configured so that a plurality of connections can be made at a plurality of positions on the tray. Each of the plurality of connections involves at least one connector having information stored in a device associated therewith that can be read. The backplate and the tray are configured so that the tray can be selectively attached and removed from the backplate. The backplate and the tray are configured so that the devices associated with the connectors involved in making the connections can be read via the tray. The devices associated with the connections can be implemented, for example, using RFID tags or connection point identifier (CPID) storage devices (such as EEPROMs).

Abstract: A wire or cable comprises a core (10) and a sheath including a wrapped film (16) of polyetherether ketone (PEEK) and a flameproofing layer (14) comprising mica particles dispersed in a polymer matrix such as a silicone. An outer coating (18) of PEEK or another polymer may be provided, which may be sintered to provide a tough outer protective covering. The PEEK and mica layers combine synergistically to provide a sheath of increased flame resistance as well as high flexibility and resistance to mechanical stresses, while being of reduced weight and diameter.

Abstract: A connector assembly is provided and includes a connector, a lock, and a spring arrangement. The connector has a housing, a spring arrangement holder, and a plug section. The housing has an upper shell and a lower shell that provide a lock receiving passageway into an interior thereof. The spring arrangement holder is disposed along the lower shell. The plug section is disposed along the lower shell and opposite the spring arrangement holder. The lock is inserted into the lock receiving passageway. The spring arrangement is inserted into the spring arrangement holder.

Abstract: One embodiment is directed to an adapter comprising a coupling circuit configured so that a portable RFID reader can be positioned near a first part of the coupling circuit associated with a first side of the adapter in order to perform a localized read of both an RFID tag attached to a first connector inserted into a first jack of the adapter and an RFID tag attached to a second connector inserted into a second jack of the adapter, wherein the coupling circuit is used to enhance a read range of the portable RFID reader when performing the localized read. These embodiments can be used in the outside plant of a telecommunications network. Other embodiments are disclosed.