Abstract: A system for processing an end surface of an optical fiber has an electrode housing unit. The electrode housing unit has a plate-shaped electrode with a first polarity; a set of tip electrodes having a plurality of tip electrodes positioned in parallel with each other and facing the plate-shaped electrode, the plurality of tip electrodes having a second polarity opposite to the first polarity; and an electric discharge arc area positioned between the plurality of tip electrodes and the plate-shaped electrode.

Abstract: One embodiment is directed to a tray for use in a subrack of a rack, the tray comprising a printed circuit board configured so that a plurality of connections can be made at a plurality of positions on the printed circuit board. Each of the plurality of connections involves at least one connector having an RFID tag associated therewith. The tray further comprises a plurality of RFID antennas integrated into the printed circuit board, each the RFID antennas associated with a respective one of the positions. The printed circuit board is configured to localize a field emitted from each RFID antenna so that only the RFID tag associated with that RFID antenna is energized and read.

Abstract: A cable tie system has a cable tie member and a cable retaining member. The cable tie member has a base with an inner facing surface and an outer facing surface, a pair of cable tie strips connected to the base and projecting outward from the inner facing surface, and a locking member connected to the base and projecting outward from outer facing surface. The cable retaining member has a retainer housing with a top surface, a bottom surface, a pair of tie strip receiving passageways complimentary to the cable tie strips, a resilient tie strip engaging arm positioned in each tie strip receiving passageway and in releasable contact with one of the cable tie strips when the cable tie strips are positioned in the tie strip receiving passageways, and a release member connected to an end of each resilient tie strip engaging arm.

Abstract: Certain types of aggregation enclosures include cable input ports and downwardly angled cable output ports. A cover is pivotally coupled to the body so that the cover moves between an open position and a closed position. A modular component panel may be disposed within the enclosure. The component panel includes one or more distribution components (e.g., fiber distribution components or power distribution components) configured to connect at least a portion of an incoming cable to at least a portion of an outgoing cable.

Abstract: Primary wire for marine or undersea cable comprises a conducting core (10), typically a multifilament core of copper, and an insulating sheath comprising an insulating inner layer (12) having a thickness of 0.35 to 1.0 mm, preferably 0.5 to 0.75 mm, and an outer protective layer (14) of polyvinylidene fluoride having a thickness of 0.15 to 0.3 mm, at least the outer layer being radiation crosslinked. The inner and outer layers are preferably crosslinked together using electron beam radiation. The combination of the inner and outer layers of the sheath enables marine and subsea cables and the like to be made with smaller diameters, without loss of capacity or electrical properties and with an increase in overall performance such as temperature range and mechanical properties.

Abstract: One embodiment is directed to an apparatus comprising one or more front connectors, wherein each front connector comprises a respective interface configured to read a storage device associated with a connector that is adapted to be connected to the front connector. The apparatus further comprises one or more rear connection points and one or more switches. The apparatus is configured to automatically configure the apparatus at least in part based on information read from the storage device.

Abstract: One embodiment is directed to an optical adapter comprising a body in which at least one connector can be inserted; at least one radio frequency identification (RFID) antenna and a visual indicator. The optical adapter further comprises at least one adapter contact that is electrically connected to the RFID antenna and the visual indicator; and a clip configured to electrically connect the adapter contact to a panel contact on a panel when the optical adapter is inserted into the panel and to mechanically hold the optical adapter in the panel. The RFID antenna is configured to be positioned near an RFID tag attached to the connector when the connector is inserted into the body of the optical adapter. Other embodiments are disclosed.

Abstract: A connector (100) for making an electrical connection between two plates (110, 120) that are mechanically secured to one another, the connector comprising a first socket (50) for fixing to a first plate (110), a second socket (60) for fixing to a second plate (120), and a connector pin (150), the first and second sockets both comprising an aperture (55, 65) for receiving the connector pin (150), wherein the connector further comprises a first spring (161) for contacting between the connector pin and the first socket, and a second spring (162) for contacting between the connector pin and the second socket.

Abstract: Externally insulated coaxial connector (2) for connecting two electrical coaxial components, the connector comprising an insulative housing 6 defining first and second intersecting passageways (18, 20) for respectively receiving at least portions of the coaxial components and having central longitudinal axes (16, 22) which are not aligned with each other and may be mutually perpendicular. The connector further comprising a first shield member (54) which is at least partly accommodated by the first passageway (18) and a second shield member (120) which is at least partly accommodated by the second passageway (20) and is engageable with the first shield member (54) by movement of the second shield member (120) with respect to the second passageway (20). Engagement of the first and second shield members (54, 120) with each other and engagement of first and second core connection members (44, 110) with each other may be by means of push-fit inter-engagement.

Abstract: A switching arrangement is disclosed comprising: a control circuit; a latching relay controlled by the control circuit for connecting an AC source to an AC load; and a relief circuit in parallel with the relay and controlled by the control circuit. The relief circuit has two modes of operation: an inactive mode in which the relief circuit is non-conductive and an active mode in which the relief circuit is at least partially conductive. The relief circuit is partially conductive when spending both a time period in a conductive state and a time period in a non-conductive state during a half-cycle of the AC. The control circuit is configured to switch the relief circuit from inactive mode to active mode, and upon switching to active mode, to set the relief circuit as partially conductive for at least two half-cycles, wherein the proportion of time the relief circuit is conductive compared to non-conductive is increased for successive ones of the at least two half-cycles.

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: There is disclosed a connector system (500) comprising a contact pin (400) and a socket (200) for receiving the contact pin. The contact pin comprises a first groove (402) extending around the axis (410) of the contact pin; a coiled spring (404) within the first groove; and a set of teeth (406) extending around the axis of the contact pin. The socket (200) comprises a cup portion (202). The cup portion comprises a set of teeth (206) extending around the axis (210) of the cup portion (202) and for engaging with the teeth (406) of the contact pin; and a first contact surface (518) inside the cup portion and extending around the axis (210) of the cup portion for contacting the coiled spring (404) of the contact pin.

Abstract: One embodiment is directed to a interconnection system comprising at least one port at which an interconnection between at least two cables can be made, an RFID reader configured to read an RFID tag attached to at least one of the cables interconnected at the port, and an interface to connect a removable module to the system. The removable module comprises a rechargeable battery to power the system. The removable module is configured to provide a communication link to communicate data read by the RFID reader to a device outside of the interconnection system. Other embodiments are disclosed.

Abstract: An pneumatic insulating device (20) is disclosed comprising: a load bearing body, top (24) and bottom parts connected to the load bearing body; and a coiled, insulating pneumatic line (14, 14?) connect to and passing though the top and bottom parts, characterised by both the top and the bottom parts have fixing means (21) for fixing the device between external fixtures.

Abstract: A straight electrical coaxial cable connector (2) for connecting first and second coaxial cables (8, 10) each including a core (16, 24) and a shield layer (20, 28), the connector (2) including first and second interengeagable housing parts (68, 70), first and second crimp ferrules (34, 52) for respectively engaging the shield layers (20, 28) of the first and second cables (8, 10), shield connection means (38) for electrically interconnecting the first and second shield layers (20, 28), core connection means (36, 64) for electrically interconnecting the two cores (16, 24), and first and second ferrule engagement means (76, 88) operable to respectively secure the first and second ferrules (34, 52) relative to respective said housing parts (68, 70).

Abstract: A dust cap (100) for covering a jack recess (206) in a telecommunications jack (200) is disclosed. In one embodiment, the dust cap (100) includes a cover portion (110) attached to a hinge base (150). The cover portion (110) is rotatable from a closed position, wherein the cover portion (110) covers the jack recess (206), to an open position, wherein the jack recess (206) is exposed. The cover portion (110) may include a securing feature (114, 116) configured to engage with the jack recess (206) to retain the cover portion (110) in the closed position. The front face (110a) of the cover portion (110) may also include a handle (112). The dust cap (100) may also include an adhesive (156) located on a rear face (150b) of the hinge base (150) that is configured to engage with a front face (204) of the telecommunications jack (200) to secure the dust cap (100) to the telecommunications jack (200).

Abstract: A connecting arrangement for connecting supply lines across a gap between railway vehicles is disclosed. The connecting arrangement electrically and pneumatically connects railway vehicles or pantographs of a train. The connecting arrangement may include at least one flexible electrical power line and at least one flexible fluid line. The at least one power line and the at least one fluid line may be preassembled to form an integral unitary structure.

Abstract: A patch cord including a connector attached to an end of an electrical cable. The connector includes a single-piece attachment member having a management section, a boot, and collar including a retention arrangement. Certain types of retention arrangements include one or more teeth that protrude inwardly from the collar to bite into at least an outer jacket of the electrical cable.

Abstract: The present disclosure relates to a telecommunications connector having cross-talk compensations, and a method of managing alien crosstalk in such a connector. In one example, the telecommunications connector includes electrical conductors arranged in differential pairs and a circuit board with conductive layers that provide a cross-talk compensation arrangement for applying capacitance between the electrical conductors. The circuit board includes conductive paths that provide capacitive coupling and a conductive plate that intensifies capacitive coupling of the electrical conductors. In another example, the telecommunications connector is used with a twisted pair system.

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.