Abstract: A shield connector includes an outer housing accommodating a shield shell in a shell insertion direction. A stepped part protrudes from an inner wall of the outer housing to support the shield shell. A cover plate portion of the shield shell includes a bendable side portion extending along the shell insertion direction. A tip imaginary line of an end face of the stepped part is curved so that a position of the end face corresponding to the joining portion is located on a far side from an electric wire pullout opening in the shell insertion direction than a position of the end face corresponding to the bendable side portion, to thereby urge the cover plate portion in a bending direction when an inner housing with the shield shell is inserted into the outer housing.

Abstract: An improved external trial stimulator provides neurostimulation functionality for implanted medical electrodes prior to implantation of an implantable neurostimulator. The external trial stimulator is housed in a four-part housing that provides mechanical and electrostatic discharge protection for the electronics mounted in a central frame of the housing. Connectors attached to leads from the electrodes connect to contacts that are recessed in the housing through ports that are centered for easy access. Multiple indicators provide information to users of the external trial stimulator.

Abstract: In order to avoid cost for accommodating a shield wire in a housing while bending, and smoothly and readily accommodate within the housing while the shield electric wire is insulated, a conductive housing 1 including a rear wall 4 continuing to an annular wall 3, and a tube wall 5 continuing to down the rear wall 4, a method comprising the steps of: passing through a shield electric wire 2 from a lower opening 5a of the tube wall of the conductive housing to a front opening 3a of the annular wall while bending the shield electric wire; putting a shield terminal 9 movably around the shield electric wire from top of the shield electric wire; exposing a core wire 2b and a braid 2a of the shield electric wire by stripping a tip thereof; connecting an L-shaped terminal 11 to the core wire; mounting an L-shaped insulation inner housing 12 outside the L-shaped terminal; connecting the shield terminal to the braid; and accommodating a vertical part 14 of the inner housing within the conductive housing by pulling in t

Abstract: The present relates to a small form-factor pluggable (SFP) unit. The SFP unit comprises a housing, a back panel, a front panel, and at least two connectors. The housing defines a top, a bottom and two sides, and is of standardized internal dimensions. The back panel is affixed to the housing. The front panel is affixed to a front portion of the housing and defines at least two apertures. The apertures are located in such a manner so as to define there between a non-horizontal line. The at least two connectors are adapted to be inserted in the apertures of the front panel.

Abstract: An optical connection includes a male connector and a female connector, the connector offers electrical connections in the manner and the size of a USB connector, together with an integral and uncouplable optical connection. The first optical connector is shielded by a first shielding member from damage and pollution at all times until the connection between the connectors is made and the second opposing optical connector enjoys the same protection. Coupling precision between the optical connectors is achieved by magnetism holding the optical connectors together.

Abstract: An electromagnetic shield comprises a sheet of metal having slots along an edge of the sheet to form a plurality of resilient fingers. The single sheet is bent around first and second bends axes inwardly and approximately ninety degrees to form a top planar surface and first and second side walls. The single sheet of metal is sized and dimensioned to receive a connector in between the first and second side walls and top planar surface. The fingers are bent outward with a bend radius of approximately 0.020 inches with respect to a flat surface of the sidewalls and top planar surface. The fingers apply a biasing force against a surface of a faceplate. Each of the side walls includes an elongated leg, which is interconnected with a circuit board and each of the elongated legs extends beyond a bottom edge of each of the side walls.

Abstract: A cable connector assembly (100) includes an insulative housing (10) defining a plurality cavities, a first connector (20) received in a cavity, a pair of second connector (30) received in other cavities, a cable electrically connected with the first connector and the second connectors, a metallic shell (40) shielding on the insulative housing and a capacitor (50) defined in the insulative housing. The capacitor is assembled behind the connectors, and includes two linking points (500, 501). The second connector has a plurality of grounding legs (300) electrically connected with each other, one linking point of the capacitor is connected with one of the grounding legs of the second connector, and the other linking point is connected with the metallic shell.

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 SFP transceiver with two subassemblies each having an optical coupling member with a polygonal cross section is disclosed. The polygonal cross section has a flat surface facing the flat surface of the other subassembly. Between flat surfaces is put with a metal partition plate that comes in contact with a metal frame and a metal cover of the transceiver. Two sub-assemblies are electrically shielded by the partition plate, and the polygonal cross section of the subassembly makes the total width of the two assemblies added with the thickness of the partition plate minimum.

Abstract: A cable connector assembly (100) includes an insulative housing (10) defining a plurality cavities, a first connector (20) received in a cavity, a pair of second connector (30) received in other cavities, a cable electrically connected with the first connector and the second connectors, a metallic shell (40) shielding on the insulative housing and a capacitor (50) defined in the insulative housing. The capacitor is assembled behind the connectors, and includes two linking points (500, 501). The second connector has a plurality of grounding legs (300) electrically connected with each other, one linking point of the capacitor is connected with one of the grounding legs of the second connector, and the other linking point is connected with the metallic shell.

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: A high frequency micro connector has an insulating housing, multiple first terminals and multiple terminals. The insulating housing has a base, a first tongue and a second tongue. The first and second terminals are mounted through the base respectively on the first and second tongue. The second tongue includes pairs of high frequency signal transmission terminals each having a transverse extension section and a soldering section formed on the transverse extension section. The transverse extension sections of each pair protrude reversely and oppositely to increase the distance between the soldering sections therefore to prevent crosstalk between the high frequency signal transmission terminals.

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 mounting socket includes an insulating socket body provided with a card insertion recess, a plurality of first terminal receiving openings and a plurality of second terminal receiving openings. The card insertion recess extends over a portion of the socket body provided with the second terminal receiving openings. The first terminal receiving openings are provided in a remainder of the socket body. Memory card connecting terminals are arranged in the first terminal receiving openings and extend above an upper surface of the socket body. Subscriber identification module card connecting terminals are arranged in the second terminal receiving openings and extend into the card insertion recess. A metal separating plate substantially covers the subscriber identification module card connecting terminals and defines a top surface of the card insertion recess. A metal card housing substantially covers the memory card connecting terminals.

Abstract: An electrical connector includes an electrical receptacle and an electrical plug for mating with the electrical receptacle. The electrical receptacle includes a first port, a second port communicating with the first port. The second port can accommodate a standard B-type USB 2.0 plug. The first and the second ports can be combined to receive the electrical plug for high-speed signal transmission.

Abstract: The present invention relates to a multicontact connector comprising: a plug constituting the termination of a cable having at least one optical conductor and/or at least one electrical conductor; and a socket for connecting to the plug and comprising a body and a plate for fastening to a panel; wherein the socket is a single piece of polymer material and wherein the connector includes electromagnetic shielding.

Abstract: The invention provides an electromagnetic wave shield connector assuring water resistance without increasing the overall height. An electromagnetic wave shield connector including a L-shaped terminal with an electric wire including a electric connection part and a wire connection part, an inner housing including a first storing part in which the first storing part is inserted, and a second storing part in which the second storing part is accommodated an outer housing accommodating the first storing part, and a shield member-covering the outer housing assembled with the inner housing. The first storing part having a through-part into which the first storing part is inserted and a first gasket mounted on a periphery of the first storing part. The first storing part is cylinder shaped. The outer housing having an opening whose inner periphery comes by intimate contact with the first gasket.