Abstract: A harness comprises a connector body, a cable and a cable-holding portion which holds the cable. The connector body comprises a base portion. The cable is connected to the connector body. The cable has an end portion received in the base portion and a main portion extending rearward from the end portion. The cable-holding portion is formed with a recessed portion which opens at least downward in the upper-lower direction (Z-direction). The base portion has an interference portion. The recessed portion and the interference portion are located at opposite sides of the harness, respectively, in the lateral direction (Y-direction). The recessed portion is, at least in part, located at a position same as that of the interference portion in the front-rear direction (X-direction). The recessed portion is, at least in part, located at a position same as that of the interference portion in the upper-lower direction.

Abstract: A connector assembly includes a connector module, a first shell located outside the connector module, and a second shell injection-molded outside the first shell. The first shell has a first slot and a second slot in communication with each other, and a first fixing portion relatively close to the connector module and a second fixing portion. The second fixing portion has a first abutting surface forming a portion of the first slot and a second abutting surface forming a portion of the second slot. The second shell has at least a clip portion filled in the first slot and the second slot. The clip portion abuts the first abutting surface and the second abutting surface simultaneously. An included angle between a direction of the clip portion abutting the first abutting surface and a direction of the clip portion abutting the second abutting surface is less than 180 degrees.

Abstract: Electronic devices, such as mobile communication devices, may include several enhancements and modification not found on traditional electronic devices. Parts of the electronic device can be welded together to provide structural support and or functional connections between operating components of the electronic device. Within a band, a back plate can support multiple operable components of the electronic device. The band, the welds, and/or the back plate can provide electrical connections between components. Conductive pathways provided by the welds can be provided with adequate strength and durability to reduce and avoid breakage so that sensitive components, such as a compass module, can operate without alterations that would cause interference. The welds can be provided in a sequence that mitigates the effects of heating during the welding process.

Abstract: A shield terminal (T) includes inner conductors (52) to be connected to front parts of cores (62) of a shielded cable (60), a dielectric (46) configured to accommodate the inner conductors (52), a tubular member (12) forming part of an outer conductor (10) and configured to surround and hold the dielectric (46). Two divided shells (18, 35) have a half-divided shape, are separate from the tubular member (12), and form part of the outer conductor (10). The divided shells (18,35) are to be connected to a front part of a shield layer (65) of the shielded cable (60). A first cover (19) and a second cover (36) are formed on a lower member (18) and an upper member (35) and surround the cores (62) over an entire periphery between a rear end of the tubular member (12) and a front end of the shield layer (65).

Abstract: It is aimed to improve assembling workability and the reliability of a shielding function. A shield terminal includes inner conductors (52) to be connected to front end parts of cores (62) of a shielded cable (60), a dielectric (46) configured to accommodate the inner conductors (52), a tubular member (12) constituting an outer conductor (10) and configured to surround and hold the dielectric (46), a lower member (18) separate from the tubular member (12), constituting the outer conductor (10) and including a crimping portion (32) connectable to a shield layer (65) of the shielded cable (60), a first hooking portion (22) formed on a front end part of the lower member (18) and lockable to a rear end edge part of the tubular member (12), and a first guide means (28) configured to guide the lower member (18) to a proper assembly position while allowing the lower member (18) to swing with the first hooking portion (22) as a fulcrum.

Abstract: A shield terminal (T) includes inner conductors (52) connected to cores (62) of a shielded cable (60) and a dielectric (46) accommodates the inner conductors (52). A body (11) of an outer conductor (10) includes a tubular holding portion (14) that surrounds the dielectric (46) and a crimping portion (32) connected to a front of a shield layer (65) of the shielded cable (60). An upper member (35) of the outer conductor (10) is separate from the body (11) and with the body (11) surrounds the cores (62) over an entire periphery. A second hook (39) on a front part of the upper member (35) is lockable to a rear edge of the holding portion (14). A second guide means (29) guides the upper member (35) to a proper position while allowing the upper member (35) to swing with the second hook (39) as a fulcrum.

Abstract: The invention relates to a shielding metal plate (3) suitable for connecting at least one shielded conductor. The shielding metal plate (3), which can be held in a housing of a plug connector, protects the held conductor from external, interfering influences. The shielding metal plate (3) can be variably adapted to different conductor cross-sections such that both thin and thick conductors can be connected.

Abstract: A connector for being arranged at an end of an electric wire includes a housing including an electric wire supporting portion in which an insertion hole to insert the electric wire thereinto is formed and which is harder than the electric wire and sandwiches the electric wire inserted into the insertion hole, and an annular magnetic core including a nanocrystalline soft magnetic material which is arranged around the electric wire supporting portion.

Abstract: Disclosed is an individualized split-type tool-free convenient intelligent information plug. A slot (2) is provided in the middle of the plug (1). An elastic sheet (3), a circuit board (4) and a cover board (5) are sequentially arranged on the slot (2). Metal contact pieces (6) are arranged on the cover board (5). Contact pins (7) extend downwardly from the lower ends of the metal contact pieces (6). The circuit board (4) is provided with through holes (8) for the insertion of the contact pins (7). An upper cover shell (9) and a lower cover shell (10) are arranged at the tail end of the plug (1). The plug (1) further comprises a cable insertion module (11). The front end of the cable insertion module (11) is provided with an insertion slot for the insertion of the circuit board (4), and the upper end surface and lower end surface of the cable insertion module (11) are provided with grooves (13) for the placement of cable conductors. Metal connecting parts (14) are arranged in the grooves (13).

Abstract: A socket connector includes an insulating housing, a sliding block, a resilient element, a detection terminal assembly assembled to a rear end of the insulating housing, a connection terminal assembly assembled to the rear end of the insulating housing, at least one ground element, and an outer shell surrounding the insulating housing. A top of the insulating housing has a restricting groove. A rear of the restricting groove extends rearward to form a sliding groove. At least one side surface of the insulating housing is recessed inward to form at least one ground groove. A rear of a bottom of connecting space extends downward and rearward to form a holding groove. The sliding block is mounted in the sliding groove. The at least one ground element is received in the at least one ground groove. The resilient element is assembled to a top of the insulating housing.

Abstract: An electrical connector assembly includes an insulating body, multiple signal terminals received in the insulating body, a metal ground member fixed on the insulating body, and at least one ground core wires. The metal ground member has a plate surface and a cutting surface connected with the plate surface. The ground core wire is soldered to the cutting surface. The cutting surface is rough, the frictional force between the cutting surface and the ground core wires is great.

Abstract: A shield connector includes an inner housing that hold terminals connected to wires, and a shield shell accommodates an inner housing and an end of the shielded cable. The shield shell includes a cable inserting portion to receive the shielded cable. A convex portion projects from a side of the inner housing. The shield shell includes a base on which the inner housing is arranged, and a cover fit to the base. The base includes a bottom plate to cover a bottom of the inner housing, two base-side plates to cover side surfaces of the inner housing, and an engaging hole in the base-side plate. The convex portion of the inner housing engages the engaging hole. The cover includes an upper plate to cover a top of the inner housing, and cover-side plates rising from sides of the upper plate to overlap the base-side plates and cover the engaging hole.

Abstract: A shield connector includes a shielded cable (11) with wires (12) enclosed by a shield layer (13). An inner housing (16) accommodates terminals (15) connected to the wires (12). A shield shell (20) covers the inner housing (16) and includes a connecting portion (23) to be connected electrically to the shield layer (13). An outer housing (30) accommodates the shield shell (20) and is locked to a mating connector. The outer housing (30) includes a body (31) enabling the shield shell (20) to be inserted therein through an opening (31A) on a rear side, and two covers (40A, 40B) integrally hinged to the body (31) to close the opening (31A) and cover the connecting portion (23). Each cover (40A, 40B) includes a first lock (43, 44) to be locked to the mating cover and a second lock (45) to be locked to the body.

Abstract: A shield connector includes wires (12, 14, 15), terminals (20) connected respectively to the wires, a housing (30) for arranging upper and lower rows of terminals, and a shield shell (40) for covering the housing. Each terminal (20) includes a terminal connecting portion (21) to be connected to a mating terminal and a wire connecting portion (23) to be soldered to the corresponding wires. The housing (30) includes a housing body for accommodating the terminal connecting portions and an extending plate (35) extending rearward along a connecting direction to a mating housing from the housing body and arranged between the wire connecting portions of the first and second terminal rows. The shield shell (40) includes first and second open portions (58, 59) for exposing each of one and other surfaces of the housing extending portion, and first and second covers (60A, 60B) for covering the first and second open portions.

Abstract: A cable connector assembly (100) includes an electrical connector (1), a cable connecting the electrical connector electrically, an external shell (2) mounted to the connecting portion of the electrical connector and the cable. The electrical connector includes an insulative housing (12), a number of terminals (13) received in the insulative housing, and a front shell (11) mounted to the insulative housing. The insulative housing includes a base section (120) and a mating section (123) extending forwardly from the base section. The front shell (11) includes a frame portion (113) enclosing the mating section and a retaining portion (110) extending rearwardly from the frame portion and assembled to the base section. The retaining portion further defines a number of elastic portions (111) bent upwardly from the retaining portion and resisting against an inner face of the external shell.

Abstract: Methods and systems may include an input/output (IO) interface that has an integrated buffer, a housing and a substrate disposed within the housing. The substrate may include a first side, a second side and a connection edge. The integrated buffer can be coupled to at least one of the first side and the second side of the substrate. A plurality of rows of contacts may be coupled to the first side of the substrate. Each row of contacts can be stacked substantially parallel to the connection edge. The substrate may have power outputs coupled thereto and the integrated buffer can include a voltage regulator that has a supply output coupled to the power outputs.

Abstract: An electrical connector includes an insulating body, a terminal set, a wire, and a shielding housing having an upper shell body and a lower shell body. A support part of the first buckling sheet which is penetrated through a first buckle hole of the lower shell body is rivetedly pressed on an outer peripheral edge of the first buckle hole of the lower shell body. An upper side and a lower side of the wire are pressed by a top plate of the upper shell body and the bottom plate of the lower shell body so that the upper and lower shell bodies of the shielding housing can be integrally formed, thereby promoting the bulk intensity of the produced electrical connector, preventing the internal mechanism of the electrical connector from damage due to the oscillation of the wire, and promoting the reliability of the produced electrical connector.

Abstract: A connecting structure comprises a board-side connector and a wire-side connector. The board-side connector comprises a frame pedestal surrounding an accommodating chamber; a metal outer shell covering the exterior of the frame pedestal; a metal inner shell mounted to a mounting hole at a rear end of the accommodating chamber; and a transmission main body mounted to an interior of the metal inner shell. The wire-side connector comprises a transmission main body having multiple terminals having multiple first ends soldered to discrete core wires of a wire cable and multiple second ends configured to contact terminals of the board-side connector; a clamp cage at a rear side of the transmission main body; and a plastic case surrounding an accommodating chamber, wherein the accommodating chamber receives second ends of the terminals.

Abstract: Herein disclosed is a shielded connector that makes it possible to bring a shielded shell into reliable contact with a shielded shell cover while pursing further miniaturization. A shielded connector 11 includes a shielded shell 19 having a barrel 55 for fixing a sheath 33 of a shielded electric wire 27 and a rectangular cylindrical shield 47 having an opening 51 in an upper surface 49 of the shell; and a shielded shell cover 21 that has a pair of mutually opposed insertion laps 57 to cover the opening 51 and that assumes a substantially C-shaped cross sectional profile. When the pair of insertion laps 57 are inserted inside the shielded shell 19 in order to cover the opening 51, protuberances 61 provided on the pair of insertion laps 57 press side plate interior surfaces of the shielded shell 19.

Abstract: A cable assembly comprises a metallic housing defining a receiving room and a number of protruding plates formed in the receiving room, and a printed circuit board received into the receiving room. The printed circuit board defines a front mating portion and a rear terminating portion defining a number of slits formed thereon for the protruding plates to pass through. And a cable comprises a plurality conductive wires electrically connected with the printed circuit board and spaced apart from each other by the protruding plates.

Abstract: A cable connector assembly comprises an insulative housing (1), a number of contacts (2), a cable (6) electrically connected with the contacts, and a metallic shell (3) enclosing the insulative housing. The insualtive housing includes a base portion (11) and a tongue portion (12) extending forwardly from the base portion. The metallic shell comprises a front shell (31) and a rear shell (32) combined with each other, the rear shell defines a pair of continued portions (322) extending backwards from an upper surface and a lower surface thereof, the continued portions is pressing on the cable, and the cable connector assembly further has a crimping ring (7) enclosing on the continued portions and the cable.

Abstract: An electrical connector (100) includes an insulative body (1) having a wide tongue (123) and a narrow tongue (121) split by a gap (124) therebetween. A metallic shell (32) includes a front pocket (320) defining a large receiving cavity (327) enclosing the wide tongue (123), a small receiving cavity (325) enclosing the narrow tongue (121), and a non-circumferentially enclosed notch structure (33) which protrudes into the gap (124) so as to form the large receiving cavity (327) and the small receiving cavity (325). Besides, the notch structure (33) defines a notch (330) opened to an exterior from a bottom side thereof. First and second sets of contacts (211, 212) are located in the wide tongue and the narrow tongue, respectively, and the first contacts (211) are compatible to version 2.0 Micro Universal Serial Bus.

Abstract: An electrical connector (100) includes an insulative body (1) having a wide tongue (123) and a narrow tongue (121) split by a gap (124) therebetween. A metallic shell (32) includes a front pocket (320) defining a large receiving cavity (327) enclosing the wide tongue (123), a small receiving cavity (325) enclosing the narrow tongue (121), and a non-circumferentially enclosed notch structure (33) which protrudes into the gap (124) so as to form the large receiving cavity (327) and the small receiving cavity (325). Besides, the notch structure (33) defines a notch (330) opened to an exterior from a bottom side thereof. First and second sets of contacts (211, 212) are located in the wide tongue and the narrow tongue, respectively, and the first contacts (211) are compatible to version 2.0 Micro Universal Serial Bus.

Abstract: An electrical connector assembly (100) includes an insulative housing (1), a number of contacts (2) assembled in the insulative housing, a cable (4) welded with the contacts. The insulative housing includes a base portion (11), a tongue portion (12) integral with the base portion for defining a mating direction. The contacts has a number of contacting portions (212, 222) received in the tongue portion and partly extending beyond the tongue portion and a number of soldering portions (211, 221) extending rearward out of the base portion. The soldering portions include at least one pair of upper-and-lower soldering portions (26, 28, 27, 29). Each upper soldering portion opposingly faces a corresponding lower soldering portion in a vertical direction perpendicular to the mating direction. The cable is connected with respective soldering portions of the contacts.

Abstract: An electrical cable connector assembly comprises a metallic shell defining a receiving space and a rear wall enclosing the receiving space, a printed circuit board retained in the receiving space, an electrical connector including an insulative housing and a plurality of contacts retained in the insulative housing, and a cable located behind the printed circuit board and including a wire extending into the receiving space to be soldered on the printed circuit board. The contacts each defines a soldering tail soldered to the printed circuit board. Wherein the rear wall defines a cable ring deep drawn rearwardly therefrom to cover the cable.

Abstract: A shielded connector achieving sufficient contact load between a shielded conductor and a crimp portion of an outer conductor shell without influence such as deformation of cross sections on signal wires when the crimp portion is crimped onto the conductor, and enhanced pull-out strength of a shielded cable against the shell. The shell includes a tubular connection portion having an arc-shaped cross section and arranged to be inserted into the conductor end portion exposed by stripping off a sheath portion at the cable end portion, shielded conductor crimping portions opposed to the connection portion and arranged to be crimped onto the conductor end portion into which the connection portion has been inserted, and fitting spaces provided to an inside of the conductor crimping portions at positions opposed to the tubular connection portion. Upper ends of the connection portion and the conductor are inserted into the spaces during crimping process.

Abstract: An electrical connector assembly (100) comprises an insulative body (1) integrally including a forward part (12) and a backward part (11). A main shell (32) includes a front pocket (320) enclosing the forward part (12), and a back segment (322) covering an upper portion of the backward part (11) of the body (1). A sub-shell (31) is assembled with the main shell (32), and includes a lower piece (316) covering a lower portion of the backward part (11). Therefore, the main shell (32), the sub-shell (31) are assembled with each other to provide a good shielding enclosure for the insulative body (1), where the contact terminals (2) are held therein.

Abstract: A cable connector assembly includes an insulative housing (1) having a number of contacts (2) received therein, a shielding member (3) enclosing the insulative housing, a printed circuit board (4) connected with tail portions of the contacts, a cable (5) connected with the printed circuit board, and a metallic shell (6) enclosing the printed circuit board. The metallic shell has a top shell (61) and a bottom shell (62) assembled to each other, and the metallic shell also defines a pair of blocking portions (625) bent from a front end thereof, the blocking portions are perpendicular to a mating direction and adjacent to a front surface of the shielding member.

Abstract: An cable assembly includes an insulative housing with a plurality of terminals; a cable having a plurality of wires respectively connected to the plurality of terminals; a latching member mounted to the insulative housing, the latching member including two latching arms spaced apart from each other along a transversal direction and a connecting portion with two opposite ends thereof joined with the two latching arms, at least one resilient tab extend downwardly from the connecting portion; and an external cover enclosing the insulative housing and the latching member, the external cover having a deformable button disposed proximate to the connecting portion of the latching member.

Abstract: A shielded connector achieving sufficient contact load between a shielded conductor and a crimp portion of an outer conductor shell without influence such as deformation of cross sections on signal wires when the crimp portion is crimped onto the conductor, and enhanced pull-out strength of a shielded cable against the shell. The shell includes a tubular connection portion having an arc-shaped cross section and arranged to be inserted into the conductor end portion exposed by stripping off a sheath portion at the cable end portion, shielded conductor crimping portions opposed to the connection portion and arranged to be crimped onto the conductor end portion into which the connection portion has been inserted, and fitting spaces provided to an inside of the conductor crimping portions at positions opposed to the tubular connection portion. Upper ends of the connection portion and the conductor are inserted into the spaces during crimping process.

Abstract: A circuit board built-in connector and a catcher are provided. The circuit board built-in connector and the catcher can be miniaturized, have high cable pulled-out strength and resistance to noise and electrostatic property, and are easy for installation and high in line operability. The circuit board built-in connector for connecting an antenna element (10) with a cable (20) is comprised of a circuit board (1), a ground member (2), and a cable clamping portion (3). The circuit board (1) has connecting terminals and an electronic circuit is placed thereon. The ground member (2) is provided adjacent to a side portion of the circuit board in a perpendicular manner to a plate surface of the circuit board. Then, the cable clamping portion (3) extends from the ground member to hold the cable (20).

Abstract: A shielding shell includes an upper shell and a lower shell. The upper shell has a rear cover engaged in the lower shell, and a front cover connected to a front of the rear cover and mounted beyond the lower shell. The lower shell has a base board, two side boards protruding upward from two opposite sides of a rear of the base board, and a front board protruding upward from a front end of the base board. Two opposite ends of the front board extend sideward to form a pair of fixing boards bent rearward to lie substantially in alignment with the corresponding side boards. Wherein a free end of each of the fixing boards extends to form a fixing portion buckled into a corresponding fixing cavity defined in a front of each of the side boards for fixing the fixing board to the corresponding side board.

Abstract: An electrical connector (100) comprises an insulative housing (10), a shell encapsulating the insulative housing and a plurality of contacts (20) received in the housing abreast. The insulative housing defines a tongue (12), a plurality of passageways (121) and receiving grooves (131), the passageways extending to the tongue, the tongue has a stopping portion (126) in the front of each passageway. A cavity is defined below each stopping portion and communicated with the passageway. Each contact has a contacting portion (21) and a tail portion (23) wider than the contacting portion, the contacting portions are received in a corresponding passageways with the tail portions received in a corresponding receiving grooves. Each contacting portion defines a tab (210) protruding forwardly from a bottom surface thereof, the tab is received in the cavity and protected by the stopping portion (126); each tail portion is stamped downwards to form a notch (231) receiving wires and soldering with the wires.

Abstract: An electrical connector designed to be connected to the edge of a printed circuit card having a first face placed in contact with a support. Said connector comprises at least one metal blade designed to be in contact with an electrical track placed on a second face of the printed circuit card, and at least one securing means designed to secure the electrical connector on the edge of said card. Said at least one metal blade is designed to exert a gripping force on the printed circuit card to keep the latter in contact with the support, movement of the electrical connector and of the printed circuit card being limited in at least one direction perpendicular to the faces of the printed circuit card.