Abstract: A cable connector assembly includes a cable connector comprising an insulative housing and a plurality of conductive terminals mounted in the insulative housing, the conductive terminal having a connecting portion; a cable having a plurality of wires electrically connecting with the connecting portions, the wire comprising a core, an insulative layer enclosing the core, and a grounding layer enclosing the insulative layer, the core extending beyond the grounding layer; and a conductive element electrically connecting with the connecting portion of a selected conductive terminal. The conductive element electrically connects the grounding layers; and the cores of the wires electrically connect with the connecting portions of the remaining conductive terminals.

Abstract: A cable connector assembly for being mounted on an external device for docking a mating connector, the cable connector assembly including a shield shell having a plurality of metal shrapnel, an insulative housing received in the shield shell, a plurality of connectors received in the insulative housing, and a cable connecting with the connector. The connector has a metal shell. The metal shrapnel is movable by the external device to be elastically pressed between the connector metal shell and the external device.

Abstract: A plug connector assembly for mating with a complementary connector includes a printed circuit board (PCB) defining a plurality of conductive pads, a pair of metal members mounted on two sides of the PCB and soldered with the PCB for electrically connecting with the complementary connector, an inserting member electrically connected on a front end of the PCB to connect to the complementary connector, and a housing enclosing the PCB. The PCB includes a front portion, an opposite rear portion, and a middle portion connecting the front portion and the rear portion. The conductive pads include a plurality of first pads disposed on the front portion. The inserting member includes an insulative member and a plurality of terminals held on the insulative member. The terminals are soldered with corresponding first pads.

Abstract: A cable connector assembly for mating with a mating connector in two directions includes a PCB, a cable, and a housing. The PCB includes a front end portion, a rear end portion, and a middle portion. The front end portion includes some front conductive pads, while the rear end portion includes some rear conductive pads. The PCB includes an upper surface and a lower surface. The cable includes some coaxial wires and single wires. All the coaxial wires are soldered on one surface, and all the single wires are soldered on another surface of the PCB. Part of the rear conductive pads soldered with the coaxial wires are electrically connected to the front conductive pads on the upper surface through a layer of conductive path, while the other rear conductive pads are electrically connected to the front conductive pads on the lower surface through another layer of conductive path.

Abstract: An electrical connector includes a first insulative housing (21), a number of first contacts (22) retained in the first insulative housing, and a metallic shell shielding on the first insulative housing. Each first contact comprises a main portion, a contacting section (2211) in front of the base portion, and a soldering section (2201) behind the base portion. Each first contact has a first sub-contact (220) and a second sub-contact (221) stacked with each other. The first sub-contact (220) comprises a first main section (2202) and the soldering section, the second sub-contact (221) comprises a second main section (2210) and the contacting section, the first main section is superimposed on the second main section to form the main portion, and the main portion of the first contact has a larger thickness than the contacting section and the soldering section.

Abstract: A cable connector assembly includes an insulative housing, a cable defining a number of core wires, and a number of conductive terminals held in the insulative housing. Each conductive terminal includes a contacting portion, a soldering portion soldered to the cable, and a middle portion between the contacting portion and the soldering portion. The conductive terminals include a number of first terminals in a row and a number of second terminals in another row. Both the first terminals and the second terminals include a pair of power terminals and a pair of grounding terminals. The soldering portion of only one kind conductive terminal of the first terminals is bent to a plane of the soldering portion of a corresponding conductive terminal of the second terminals with same function to form a shared soldering portion. The shared soldering portion is electrically connected to a corresponding core wire.

Abstract: A method of manufacturing a cable connector assembly including the steps of: connecting a mating member to a cable through an internal printed circuit board; enclosing a shell over the mating member and the cable; fixing a number of dowel pins to the shell; molding a strain relief over the shell; removing the dowel pins to form a number of pinholes in the strain relief; and telescoping an outer over-mold on the strain relief along a front-to-back direction.

Abstract: The present invention discloses a folding vibration microgenerator and a method of manufacturing the same. The microgenerator comprises a foldable sandwiched substrate, wherein the foldable substrate comprising two flexible insulating substrates and an induction electrode located between the two flexible insulating substrates, in which the induction electrode is constructed by two complementary comb-shaped electrodes. The foldable substrate has upper and lower surfaces, on which the first friction structure units and the second friction structure units are respectively periodically distributed, and the first friction structure units corresponds to the odd-numbered comb teeth of the induction electrode and the second friction structure units corresponds to the even-numbered comb teeth of the induction electrode. The foldable substrate is folding at gaps between two adjacent comb teeth of the induction electrode as a serrate shape, thereby forming a folding vibration microgenerator.

Abstract: A cable connector assembly includes a connector, a printed circuit board having a rear portion, a cable connected to the rear portion, a strain relief having a main portion, a shell having a front wall and a rear wall, an outer case enclosing the shell and having a front end face and a rear end face, wherein the main portion is disposed between the rear wall and the rear end face, and the main portion comprises at least one through hole. A method of assembling a cable connector assembly, the cable connector assembly including a connector, a printed circuit board, and a cable, the method comprising the steps of: over-molding a strain relief with the cable to have a main portion defining at least one through hole; disposing the printed circuit board in a shell; and mounting an outer case forwardly over the shell to press the strain relief.

Abstract: A single friction surface microgenerator and a method of manufacturing the same are described. The microgenerator comprises an insulating substrate with a surface-friction-structured layer on its upper surface and a first induction electrode and a second induction electrode on its lower surface. The first induction electrode is located to correspond to the surface-friction-structured layer that is used as a friction surface while the second induction electrode is located periphery of the first induction electrode and insulatedly spaced from the first induction electrode. The single friction surface microgenerator according to the present disclosure has a wide usage and the method of manufacturing the same may be performed through a simply and high-effective production process, processed at low cost, and may achieve high yield.

Abstract: A method associated with the related structures to prepare cable wires of a cable connector, comprising the steps of: extending a first type and a second type of cable wires through a wire spacer having a notch; securing the first and second types of wires to the spacer; bending the extended cable wires of the first type in the spacer notch; operating the extended cable wires of the second type; returning the extended cable wires of the first type; and operating the extended cable wires of both the first type and the second type.

Abstract: The disclosure discloses a vibration generator and a stacked-structure generator. The vibration generator includes an arched friction unit 1 and an arched friction unit 2. An concave inner surface of the arched friction unit 1 and an concave inner surface of the arched friction unit 2 are located opposite to each other as friction surfaces; and, the arched friction units 1 and 2 are provided with electrodes at convex outer surfaces thereof, which are concurrently served as supporting layers. The stacked-structure generator includes a plurality of the vibration generators, and several sets of a first geometrically complementary-shaped friction unit, which matches the electrode of the vibration generator that is concurrently served as the supporting layer, and a second geometrically complementary-shaped friction unit.

Abstract: A plug connector assembly includes a mating member, a cable, an internal member, and a strain relief member. The mating member includes an insulative body, some terminals, a latch, and an insulative member. The latch includes a base portion, a latching arm extending from a respective side of the base portion, and a latching portion projecting from an end thereof The internal member has some recessing portions on an surface thereof The strain relief member has some projecting portions filling the recessing portions. A method of assembling the plug connector assembly comprises molding an internal member to enclose a respective part of the mating member and molding plural recessing portions on an outer surface of the internal member, and molding a strain relief member to enclose a respective part of the internal member and molding plural projecting portions on the strain relief member to fill the recessing portions.

Abstract: An plug connector assembly (1) includes a mating member (10) including a front mating end (101) and a rear mating end (102), a cable (30) electrically connected with the mating member, a first shell (50) formed by sheet metal drawing and having a closed circumference, a second shell (60) formed by sheet metal drawing and having a closed circumference. The first shell includes a first front end (51) telescoped with the rear mating end, and a first rear end (52) opposite to the first front end. The second shell (60) includes a second front end (61) telescoped with the first rear end, and a second rear end (62) opposite to the second front end and telescoped on the cable.

Abstract: A cable connector assembly and method of assembling the same. The cable connector assembly includes a cable connector and a cable connected to the cable connector. The cable connector includes an insulative body, a plurality of terminals held in the insulative body, an internal member molded in the cable connector, and a plastic housing disposed outside of the internal member. The internal member includes a through hole penetrating obliquely the internal member. The through hole includes a first opening proximal to the cable and a second opening distal from the cable. Adhesive is filled the through hole from the first opening through the second opening to contact with an inner surface of the plastic housing.

Abstract: A cable connector assembly comprises a housing; a plurality of first contacts received in the housing; and cable having at least a first set of cable electrically respectively connected to the corresponding first contacts. Each of the first set of cable comprises a plurality of first wires formed therein. At least one of the first wires of one first set of cable is cut out, and the rest of the first wires of one first set of cable are electrically connected with the corresponding first contact.

Abstract: A cable end connector includes an insulative body, a number of terminals received in the insulative body, a spacer mounted behind the insulative body, and an insulative housing molded to enclose the inuslative body and the spacer. The spacer includes an intermediate chamfer at a mounting end thereof to prevent interference during mounting of the spacer to the insulative body. A stopping wall is disposed at two opposite sides of the chamfer to prevent molten plastics from flowing into the insulative body during molding the insulative housing.

Abstract: A plug connector assembly for mating with a complementary connector includes a printed circuit board (PCB) defining a plurality of conductive pads, a pair of metal members mounted on two sides of the PCB and soldered with the PCB for electrically connecting with the complementary connector, an inserting member electrically connected on a front end of the PCB to connect to the complementary connector, and a housing enclosing the PCB. The PCB includes a front portion, an opposite rear portion, and a middle portion connecting the front portion and the rear portion. The conductive pads include a plurality of first pads disposed on the front portion. The inserting member includes an insulative member and a plurality of terminals held on the insulative member. The terminals are soldered with corresponding first pads.

Abstract: A cable connector assembly includes a cable connector comprising an insulative housing and a plurality of conductive terminals mounted in the insulative housing, the conductive terminal having a connecting portion; a cable having a plurality of wires electrically connecting with the connecting portions, the wire comprising a core, an insulative layer enclosing the core, and a grounding layer enclosing the insulative layer, the core extending beyond the grounding layer; and a conductive element electrically connecting with the connecting portion of a selected conductive terminal. The conductive element electrically connects the grounding layers; and the cores of the wires electrically connect with the connecting portions of the remaining conductive terminals.

Abstract: A cable connector assembly comprises a pair of cables each having two conductive wires, a grounding layer, and an outer jacket. The connector is electrically connected with the cables and has an insulative housing and a number of electrical contacts retained to the insulative housing. The electrical contacts include plural signal contacts electrically connected with the conductive wires, plural grounding contacts, and plural grounding pins backwardly integrally extending from the grounding contacts. The grounding pin is disposed between the outer jacket and the grounding layer to electrically connect with the grounding layer.