Abstract: A receptacle assembly includes a contact module including a holder having a first side and an opposite second side. The holder holds a plurality of contacts. The contacts extend from the holder for electrical termination. A first ground shield is coupled to the first side. The first ground shield has grounding beams extending forward of the holder for electrical connection to a header assembly. The first ground shield has ground skewers extending into the holder. A second ground shield is coupled to the second side. The second ground shield has grounding beams extending forward of the holder for electrical connection to the header assembly. The second ground shield has ground skewers extending into the holder and the frame assembly. The ground skewers of the second ground shield engage and electrically connect to corresponding ground skewers of the first ground shield.

Abstract: An RF module includes a contact insert having a separable shielding body retaining an RF contact. The RF contact includes an RF mating tip connected to a signal tail. The mating tip and the signal tail extend out of shielding body. The shielding body includes first and second body members. The RF contact is positioned within the first body member and the second body member is removably secured to the second body member so that at least a portion of the RF contact is contained between the first and second body members. The RF module may also include a grounding block. The contact insert may be removably secured within the grounding block.

Abstract: A mounting apparatus for mounting an I/O connector includes a base having a chamber for accommodating the I/O connector, a cover engaged with the base thereby fixing the I/O connector in the chamber, a shielding case for receiving the base and the cover, and a resilient piece having a first end abutting the shielding case and a second end abutting a housing of the I/O connector.

Abstract: An electrical connector electrically connecting a chip module to a printed circuit board includes an insulative housing including a number of receiving slots and a number of passageways spaced with the receiving slot and located beside the receiving slot and a number of terminals each received in the receiving slot of the insulative housing, the electrical connector further includes a number of absorbing material blocks received in the passageways, the passageway has an inner surface coated with an metal layer and the absorbing material block is located inside the metal layer.

Abstract: An electrical connector includes a main housing, an inner housing assembled in the main housing, and a plurality of conductive terminals of which each has a fastening arm molded in the inner housing, a contact arm and a touching arm perpendicular to the contact arm. The contact arms are apart arranged along a transverse direction in front of the inner housing. The touching arms are apart arranged along a longitudinal direction at one side of the inner housing. In use, the touching arms of the conductive terminals are elastically against and further pressed downward by a circuit board to realize electrical connection with the circuit board. It is rather short-time and convenient for mounting the circuit board to the electrical connector. Moreover, the touching arms of the conductive terminals are easily removed from the circuit board for the convenience of replacing the electrical connector when it doesn't work.

Abstract: A shield is provided for use with a connector assembly that includes for sides that form an enclosure, one of the sides being a baseplate. The shield can include a plurality of guides positioned on the baseplate and the plurality of guides can be arranged in a pattern. Each guide can be formed by making two slits in the bottom plate so as to define a body portion of the guide and the body portion can be extended in the enclosure. Each guide can be supported by the baseplate at opposite ends of the body portion.

Abstract: A line filter includes a flat plate-shaped cable and a flat core. A through hole is formed in the core. The cable includes: a first penetrating portion which enters the through hole in the core from an inlet of the through hole and is passed through an outlet of the through hole; a second penetrating portion which enters the through hole in the core from the inlet of the through hole and is passed through the outlet of the through hole; and a first connecting portion which connects the first penetrating portion on a side of the outlet of the through hole to the second penetrating portion on a side of the inlet of the through hole not through the through hole. When viewed in a normal direction of a main surface of the core, the second penetrating portion overlaps with the first penetrating portion at least partially.

Abstract: A header assembly includes a conductive outer housing holding a center contact and a dielectric body. The outer housing has a rear shell and an outer contact extending forward from the rear shell. The outer contact has a catch extending therefrom positioned forward of the rear shell. The header assembly includes a nose cone coupled to the outer contact. The nose cone is manufactured from a plastic material. The nose cone surrounds the outer contact. The nose cone has keying ribs along an exterior thereof. The nose cone has a latch engaging the catch to secure the nose cone to the outer housing.

Abstract: A connecting structure of shield terminals configured to tighten and connect a pair of shield terminals with a single bolt simultaneously in a smaller space, the structure includes: two shield terminals each having a circular portion into which a braided wire of a shield electric wire is inserted and connected, a plate portion extended from the ring-shaped portion along the shield electric wire, and a projecting piece extended perpendicular to the plate portion from a tip of the plate portion and having a bolt-insertion hole at the center thereof, wherein one wall of the projecting piece is positioned on an extension of a center line (m) of the ring-shaped portion, wherein one shield terminal is inverted 180 degree, and wherein the one wall of the projecting piece of the one shield terminal is overlapped with and abuts on the one wall of the projecting piece of the other shield terminal.

Abstract: The present invention discloses a USB application device including a body, a circuit board, a pins plate and a plurality of first electrical pins. The plurality of first electrical pins are enclosed previously by the pins plate, and a first end of each one of the plurality of first electrical pins is connected on the circuit board, so that the plurality of first electrical pins pass over a first surface of the circuit board and thus extend in suspension. The circuit board is disposed within the body and the pins plate is combined with the body, so that the plurality of first electrical pins are partly exposed by the body. The present invention also discloses a method for assembling a USB application device, which is capable of simplifying the process of disposing the plurality of first electrical pins on the circuit board.

Abstract: A receptacle connector includes: a shielding case; an insulator accommodated in the shielding case; and a first contact arranged on a terminal supporting part of the insulator. A clearance is provided between a tip of the terminal supporting part of the insulator and a tip of the first contact. The tip of the terminal supporting part has an inclined surface to provide the clearance.

Abstract: A connector with a capacitively coupled connector interface for interconnection with a female portion is provided with an annular groove, with a sidewall, open to an interface end of the female portion. A male portion is provided with a male outer conductor coupling surface at an interface end, covered by an outer conductor dielectric spacer. A waveguide path between the male outer conductor coupling surface and the female portion, while in the interlocked position, may extend from the outer conductor dielectric spacer to an exterior of the interconnection through an s-bend in a radial direction, to improve RF isolation. Alternatively and/or additionally an overbody may be provided as an RF absorbing chamber including RF absorbing material and which may include a plurality of RF absorbing chambers isolated from one another, where multiple interconnections are present.

Abstract: An application structure for an electric wave effect of transmission conductor solves a high frequency crosswalk problem through the following structures. The applicature structure includes at least one transmission conductor, and the application structure includes a first differential signal transmission conductor set, first signal transmission conductor set, second differential signal transmission conductor set, first ground transmission conductor, third differential signal transmission conductor set, second signal transmission conductor set, fourth differential signal transmission conductor set, first power source transmission conductor, second power transmission conductor and second ground transmission conductor.

Abstract: An apparatus for electrically and mechanically coupling a connection portion of a sensor assembly with a connection portion of an interface cable is provided. The apparatus includes a frame having an EMI shielding material. The frame defines a first port operable to engage the connection portion of the sensor assembly and a second port operable to engage the connection portion of the interface cable. The frame includes attachment features operable to mechanically secure the connection portion of the sensor assembly and the connection portion of the interface cable relative to the frame. The frame is configured to provide a Faraday Cage around substantially all of the connection portion of the sensor assembly and the connection portion of the interface cable when the connection portions are in coupled configuration.

Abstract: A connecting apparatus for transmitting high-voltage current in a motor vehicle has a first connection element (4), a second connection element (6), a shielding housing (12) and fasteners (8, 10). The first connection element (4) has a housing (20) having a first insulating housing (21), a first contact (18) connected electrically to an internal conductor (16) of a cable (14), and a shielding arrangement (28) connected to a shield (30) of the cable (14). The shielding arrangement (28) is connected to the shielding housing (12) by a shielding part (32). The second connection element (6) has a second housing (41) having a second insulating housing part (42) with a second contact element (46) connected to a current line element. A weak-current contact arrangement creates a control circuit, and has a ring contact (52) and two spring contacts (60, 62).

Abstract: An Input/Output (I/O) plug connector (100) includes an insulative housing (1) having a base portion (11) and a mating portion (12) extending forwardly from the base portion, the mating portion having a top wall (121), a bottom wall (122), a pair of sidewalls (123) cooperatively and peripherally defining a receiving space (125), a number of first contacts (21) retained in the top wall and a number of second contacts (22) retained in the bottom wall, the first contacts and the second contacts facing toward each other across the receiving space along a vertical direction; a circuit plate (4) assembled to the base portion of the insulative housing and sandwiched between the first contacts and the second contacts for electrical connection; and a metal shield (5) covering the insulative housing.

Abstract: A receptacle connector, a plug connector and an electrical connector assembly, the receptacle connector comprises a housing, a cage, a separation unit, a plurality of receptacle terminals, and a plurality of receptacle power terminals. The housing comprises a first tongue plate and a second tongue plate which are arranged transversely at an interval. The cage is installed to the housing and surrounds the first tongue plate and the second tongue plate to define a mating space. The separation unit extends into the mating space to separate the mating space into an HDMI receptacle portion and a power receptacle portion which are arranged transversely. The receptacle terminal is provided to the first tongue plate for transmitting a signal conforming to a HDMI transmission specification. The power terminal is provided to the second tongue plate for transmitting power.

Abstract: A universal serial bus (USB) receptacle with which and from which a standard USB plug and a special USB plug are selectively matable and removable along a predetermined direction. The standard USB plug is in accordance with a USB standard so as to have a standard shell. The special USB plug has a special shell so as to have a different structure from the standard shell. The USB receptacle comprises a detector. The detector has a contact portion. The contact portion is arranged at a position where the standard shell does not arrive when the standard USB plug is mated with the USB receptacle. The special shell is connected to the contact portion at the position when the special USB plug is mated with the USB receptacle.

Abstract: A coaxial cable connector assembly and a receptor connector are provided. The coaxial cable connector assembly is composed at least of one cable end connector and the receptor connector. The receptor connector is formed of an insertion space with a lateral insertion opening to allow one portion of the cable end connector to be inserted into the insertion space through the lateral insertion opening such that the cable end connector and the receptor connector are in electrical connection. The cable end connector will be constrained such that it cannot be detached from the receptor connector in the direction other than the lateral insertion opening.

Abstract: An electrical connector includes a port (102, 103) for insertion of a mating connector along an insertion direction, a mating module (50) having a set of contacts (540, 542) received in the port, a transferring module (53) located behind the mating module and having a number of conductive components mounted thereon, and a shielding component (51, 52) disposed between the set of contacts and the transferring module. The shielding component is located between the set of contacts and the transferring module. The shielding component is simple and easily assembled to the transferring module.

Abstract: An electrical connector (100) includes an insulative housing (1), a number of contact terminals (2), a metal plate (3), and a metallic shell (4) enclosing the insulative housing (1). The terminals and the metal plate (3) are retained in the insulative housing (1). The insulative housing (1) includes a base portion (11) and a tongue portion (12) extending forward from the base portion (11). The contact terminal includes a contacting portion (21), a tail (22), and a connecting portion (23) connecting the contacting portion (21) and the tail (22). The tails (22) are positioned out of the insulative housing (1). The metal plate (3) has a number of positioning end portions (33). The positioning end portions (33) are soldered on a printed circuit board for grounding. The electrical connector (100) has improved electromagnetic interference effect.

Abstract: An electrical connector includes a case, and a plurality of ground units and transmission units alternately arranged in the case side by side. The transmission units respectively have a plurality of transmission members and a plurality of ground members for reducing mutual signal interference between the transmission units. Alternatively, at least one coupling unit is coupled to the ground units for reducing mutual signal interference between the transmission units. The ground units, the ground members and the coupling unit provide the function of preventing electromagnetic interference and crosstalk, so that the electrical connector can have increased signal transmission rate. With the above arrangements, the electrical connector also has simplified structure and is easy to assemble.

Abstract: Reinforcing bars or a reinforcing element with holes can be embedded within the shell of a receptacle connector to strengthen the shell, and potentially provide shielding. For example, a receptacle connector having a plurality of contacts configured to mate with corresponding contacts of a corresponding plug connector can include a shell having an opening for receiving the corresponding plug connector. The shell can include an upper portion and reinforcing bars embedded within the upper portion. The shell can include an upper portion and a reinforcing element with holes embedded within the upper portion. Methods for manufacturing the shell are also provided.

Abstract: A connector assembly according to embodiments of the present disclosure is advantageously configured to allow a sensor connector to straightforwardly and efficiently join with and detach from a patient cable connector. Further, embodiments of the connector assembly advantageously reduce un-shielded area in an electrical connection between a patient cable and a sensor connector. In addition, embodiments of the connector assembly advantageously increase the shielding of detector signals coming from the patient sensor to the monitor.

Abstract: A ground unit is applied to an electrical connector having a plurality of transmission units. The ground unit includes a first carrier plate and a conductive grounding member arranged in the first carrier plate and having a plurality of first and second ground terminals. In the electrical connector, the first ground terminals of the ground units are corresponding to a plurality of first transmission terminals of the transmission units in position and shape, and the second ground terminals of the ground units and a plurality of second transmission terminals of the transmission units are configured for inserting onto a circuit board. Thus, the ground units provide EMI shielding to the transmission units in the electrical connector to effectively prevent EMI and crosstalk, and enable the electrical connector to have upgraded signal transmission rate and quality as well as high heat dissipation efficiency.

Abstract: The present invention provides a component such as an IMS that can quickly and easily be connected to a wide variety of different plug-type connectors. A modular system is taught in which a shield of the IMS is provided as an interchangeable part. Each different shield in this system is adapted to directly connect to a specific unique plug or harness of a target vehicle. Since the shields are all easily interchangeable, a wide variety of unique electrical connectors can be provided without the expense and engineering of the original component that would otherwise be required.

Abstract: A connector assembly has a plug and socket; the plug includes an insulative body, at least one first power contact, at least one second power contact and a metal shield. The insulative body has a base portion and a tongue portion extending from the base portion. The tongue portion includes a plurality of power contact grooves and penetrates through the base portion, and at least one first convex portion defined in a periphery of the tongue portion. The first power contact and the second power contact are respectively formed on the power contact grooves of the insulative body for connection to a power source in a socket of host device. The metal shield encloses the tongue portion of the insulative body to cover the tongue portion. Consequently, the charging speed can be increased, reducing charging time.

Abstract: A safety electric socket includes a main body, a cap, a first slider, a second slider, a first elastic element and a second elastic element. The main body has a housing and the cap covers the housing and has at least two slots. The first slider has a first shield portion, a first plate portion and a first ramp portion. The second slider has a second shield portion, a second plate portion and a second ramp portion. Different compartments are formed between each of the sliders. The first and second sliders are stacked movably and the second ramp portion rests on top of the first plate portion while the first ramp portion rests on top of the second plate portion. The first and second elastic elements are disposed between the first and second sliders and the housing respectively to help the first and second sliders conceal conduction units.

Abstract: A high speed input/output plug assembly is disclosed having a plug body. A plurality of conductive traces are disposed on a surface of the plug body and connectable to an input/output cable. An electrically conductive grounding layer is positioned within the plug body and electrically insulated from the conductive traces, and has an opening extending through the grounding layer and below the conductive traces.

Abstract: A lance which protrudes from the outside surface of a terminal body to prevent falling out of a cavity of a connector housing includes a lance body of an inclined plate shape whose protruding length from the outer surface of the terminal body towards the outside gradually increases from the front end side of the terminal body to the back end side, and a shielding plate which extends from the back end edge of the lance body towards the outer surface of the terminal body so that an opening which opens towards a terminal back end is not formed between the back end edge of the lance body and the outer surface.

Abstract: A connector (10) includes a housing (20) connectable to a mating housing of the mating connector. A female terminal (52) is held in the housing (20) and includes a terminal connecting portion (52A) to be connected to a mating terminal provided in the mating connector and a barrel (52B) connected to the terminal connecting portion (52A). A flexible outer wire (70) is pulled out to outside from the interior of the housing (20). An inner conductive member (50) connects the barrel (52B) and the outer wire (70) in the housing (20) and includes an intermediate portion (53C) formed by bending a metal plate material substantially at a right angle. The intermediate portion (53C) is fixed to the housing (20).

Abstract: An interface connector includes a connection terminal unit configured to be connected with an external connector, and a metallic shell configured to enclose the connection terminal unit. The metallic shell includes a first shell unit, in which the connection terminal unit is mounted, and which is grounded with a printed circuit board, and a second shell unit mounted to be separated and spaced from the first shell unit. An electronic device comprises a connection terminal unit configured to be connected with an external connector and a metallic shell configured to enclose the connection terminal unit, wherein the metallic shell comprises a first shell unit in which the connection terminal unit is mounted, and a second shell unit mounted to be separated and spaced from the first shell unit.

Abstract: An electrical connector adapted for being soldered to a circuit board includes an insulating housing, a shielding shell enclosing the insulating housing, a first terminal pack and a second terminal pack. The first terminal pack includes a first main body, and a plurality of first terminals molded to the first main body. The second terminal pack includes a second main body, and a plurality of second terminals molded to the second main body. The first terminal pack is engaged with the second terminal pack with first soldering portions of the first terminals and second soldering portions of the second terminals being alternately aligned in line to make all of the soldering portions show a single-row arrangement for being soldered with the circuit board. The first and second terminal packs are assembled to the insulating housing together with the shielding shell.

Abstract: A shielded connector includes device-side connector which is fixed to a shield case and a cable-side connector which is attached to an end of an external cable and is fitted to the device-side connector. The device-side connector includes a device-side connection terminal, a device-side resin housing, and a device-side shield shell. The device-side shield shell includes a mating shell fixing part which electrically connects the device-side shield shell and a cable-side shield shell.

Abstract: A universal serial bus (USB) connector includes a main body and a conductive member. The main body is fastened to an enclosure. The main body includes at least one USB interface. The conductive member includes an engaging portion for engaging with the main body and abutting against each housing of the at least one USB interface, and a connection tab abutting against the enclosure.

Abstract: An adapter element for serial data transfer in a vehicle, the adapter element including a first housing part, which is designed electrically conductively and is connectable to a shield and a second housing part, which is designed electrically conductively and includes a contact element. The first housing part and the second housing part are disposed such that the second housing part is enclosed by the first housing part in a first region that extends along a longitudinal axis of the adapter element. The contact element is in electrical contact in the first region with the first housing part, and the contact element produces the electrical contact at least in part by the adapter element being configured such that accessibility to the contact element from a position exterior to the adapter element in a direction that is orthogonal to the longitudinal axis is ensured.

Abstract: An RF connector module and associated printed circuit board providing high isolation and controlled impedance at RF frequencies. The connector module may be manufactured using conventional manufacturing techniques, such as stamping, insert molding, multi-shot molding and interference fit between components, to provide low cost. A connector module constructed with these techniques may implement a co-planar waveguide structure, with conductive shields for isolation and lossy material to enforce co-planar propagation modes. The printed circuit board may similarly be manufactured using conventional manufacturing techniques, including drilling to form vias. As a result, an interconnection system may be manufactured with low cost. These techniques may be applied to provide performance, including in the form of isolation between RF signals, comparable to that provided by more expensive components.

Abstract: The utility model discloses a USB socket connector, including an insulated body, several terminals and a shield housing covering the insulated body, wherein the insulated body is provided with a space for accepting plugs. The terminals includes a conductive terminal, an earth terminal and a signal detection terminal, wherein the signal detection terminal is extended to the space and is electrically connected with the ground terminal According to the utility model, the earth terminal is electrically connected with the signal detection terminal, and the signal detection terminal is extended to the space, such that the USB plug is inserted into the space, the external metal housing of the USB plug is electrically connected with the signal detection terminal and the shield housing to earth, so as to effectively shield external interference.

Abstract: An electrical connector having a housing provided with an opening through which a flat circuit device is inserted into the housing, a plurality of conductive contacts arranged on the housing for contacting with connecting terminals on the flat circuit device in the housing, and a shell member mounted on the housing and provided therein with a holding portion for holding the flat circuit device in the housing and a manipulatable releasing portion for releasing the flat circuit device from holding by the holding portion, wherein the holding portion is constituted to extend from a portion of the shell member provided for covering one of opposite plate-shaped portions of the housing into an inside of the housing and to have an engaging projection formed thereon for selectively engaging with and disengaging from the flat circuit device.

Abstract: Circuits, methods, and apparatus that may provide a separation between a signal ground and an enclosure ground such that EMI and ESD circuits are not bypassed. One example may provide a connector receptacle having fingers for contacting a device enclosure, where the fingers are not directly electrically connected to a shell of the connector receptacle. These fingers may be isolated from the shell along a top-side by an electrically insulating layer. These fingers may be further insulated from the shell along a back side by a nonconductive piece or portion of a housing.

Abstract: A socket includes a housing that supports terminal bricks that can contain one or more terminals. The terminal bricks are inserted into apertures in the housing. The location of the terminal bricks can be adjusted separate from a side of the housing, thus providing the potential to improve coplanarity of the terminals in the socket.

Abstract: An electronic connector having double inserting interfaces includes a housing, two plugs, a connecting unit and a linking element. Each of the plugs has several terminals to form an inserting interface. The linking element is interconnected between the two plugs. The connecting unit includes cross wires comprising several first conductive wire portions and several second conductive wire portions, which respectively spatially correspond to the respective terminals of each of the plugs. When the electronic connector is inserted into a connector socket, one of the plugs protrudes beyond another and enters the connector socket, thereby electrically connects with the contact terminals of the connector socket via its inserting interface and also electrically connects with the another plug, while another plug electrically connects with the corresponding conductive wire portion of the connecting unit. Thus, the orientation for insertion does not need to be considered.

Abstract: A socket for electronic components includes a shield plate assembly that is formed by combining first shield plates with second shield plates in the form of a lattice and has conductivity, and contact units electrically connected to electrode terminals of electronic components are disposed in openings of the lattice of the shield plate assembly so that the electrode terminals are electrically connected to the wiring of a wiring board. The shield plate assembly is formed in a shape where lines where openings of the lattice are lined up in a first direction are arranged side by side in a second direction orthogonal to the first direction, and the openings of the adjacent lines are formed so as to be shifted relative to the openings of the next lines in the first direction by a half of the length of the side of the opening that extends in the first direction.

Abstract: A shield for an electrical connector comprises a conductive housing configured to enclose an exposed portion of at least one electrical connector. The shield further comprises at least one opening formed in the conductive housing configured to allow a corresponding mating portion of each of the at least one electrical connectors to be exposed. The shield further comprises and a plurality of conductive points located along at least one circumferential path within the conductive housing remote from the at least one opening.

Abstract: A transceiver connector (100) includes a housing (1) having a number of faces including a primary face (10) and a pair of side faces (13) and a collar clip (2). The collar clip includes a base at least partially surrounding the plurality of faces of the housing. The primary face defines at least one vertically extending locking recess (104) having a stepped portion (1041). The collar clip includes a base (20) at least partially surrounding the number of faces of the housing. The base includes at least one locking beam (204) inserted into the corresponding locking recess of the housing along a first direction and having a click portion (2041) engaging with the stepped portion of the housing along a second direction perpendicular to the first direction.

Abstract: A plug system for a high-speed bus system, having a first terminal element and a second terminal element. The first terminal element and the second terminal element each have a plurality of contact elements. The first terminal element and the second terminal element are connectable in such a way that individual contact elements of the first terminal element and the second terminal element may each be conductively contacted to one another. A data signal to be shielded is connectable to at least one first contact element of the first and/or second terminal element. At least two second contact elements in the first terminal element and/or second terminal element are situated adjoining the at least one first contact element. The plug system is characterized in that the at least two second contact elements are conductively connected in the first terminal element and in the second terminal element.

Abstract: A shield connector is for assembling of a connector housing and a shield shell acted by a small insertion force and locking the connector housing and the shield shell by a large holding force. A flexible lock arm having a projection projecting outwardly is arranged at an insulation connector housing. A locked member engaged with the projection is arranged at a shield shell in which the connector housing is inserted. When the projection is half locked with the locked member, the lock arm is prevented from bending to unlock. When the connector housing is inserted into the shield shell, the lock arm is bent and also the projection is press-fitted along an inner surface of the shield shell. A stopper facing and abutting on an inner surface along a bending direction of the lock arm is arranged at an outer surface of the connector housing.

Abstract: An underwater electrical connection assembly may include a contact pin including an axially extending conductive core and an axially extending annular insulation portion around said conductive core, a front end portion of the conductive core having an electrical contact surface, a rear end portion of the conductive core having an electrical contact surface, and an intermediate portion of the conductive core extending axially at an intermediate location between the front and rear end portions, wherein the rear end portion of the conductive core of the pin has a diameter larger than the diameter of the intermediate portion thereof, and wherein the annular insulation portion includes an inner insulating layer around the intermediate portion of the conductive core and an insulating sleeve around the inner insulating layer.

Abstract: A modular jack (100) is adapted to be mounted onto a horizontal mother printed circuit board (PCB). The modular jack comprises a housing (200) defining an upper row of ports and a lower row of ports vertically stacked in columns, a number of vertical PCBs (46, 47) extending along a front-to-rear direction and being aligned laterally, a number of shield modules (500, 54) each having a vertical shield plate (50, 548) and an insulating portion (48 and 49, 55) at least partially encapsulating the vertical shield plate. Each of the vertical PCB electrically connecting with a set of mating contacts extending into one of the upper row of ports and the lower row of ports. The vertical PCBs and the shield modules are stacked side by side in an alternating manner.

Abstract: A modular jack (100) comprising a housing (200) defining an upper cavity and a lower cavity vertically stacked under the upper port, and a contact module (400) assembled to the housing. The contact module further comprises an upper row of mating contacts (42) extending into the upper cavity for mating with a module plug inserted therein, a horizontal upper PCB (43) bearing the upper row of contacts, a vertical right PCB (47) electrically connecting the upper PCB, a number of right transferring contacts (524) electrically connecting the right PCB, a lower row of mating contacts (44) extending into the lower cavity for mating with another module plug inserted therein, a horizontal lower PCB (45) bearing the lower row of contacts, a vertical left PCB (46) electrically connecting the lower PCB, a number of left transferring contacts (522) electrically connecting the left PCB.