Abstract: An electrical connector has an insulating housing. The insulating housing has a base. At least one positioning block is protruded from a front of the base and separates the base into several equal parts. A plurality of terminals is mounted into the insulating housing. A connecting element is fixed on the positioning block. A shielding shell wraps the insulating housing. The positioning block cooperates with the shielding shell to form receiving spaces for receiving plug connectors. So, the electrical connector is capable of receiving multiple plug connectors. Meanwhile, the electrical connector simplifies the soldering process while assembling multiple connectors, and also, improves the assembly accuracy.

Abstract: An electrical connector (100) includes an insulative housing (1) defining a USB port (11) including a tongue portion (12) defining four first recesses (121) receiving four first terminals and one second recess (122) for receiving one second terminal. The four first terminals and the second terminal are arranged side-by-side at a same side of the tongue portion. The second terminal includes a second contact beam having a width smaller than that of a first contact beam of the first terminal.

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: A connector includes a shell provided as a cylindrical shape having an opened front side; a first insulator arranged in the shell; a second insulator arranged in the shell to be parallel to the first insulator; a first contact provided to be arranged in the first insulator; a second contact provided to be arranged in the second insulator; and a partition section arranged in the shell in a state of projecting from an outside of the shell to an inside of the shell so as to partition a hollow in the shell to a first region in which the first insulator exists and a second region in which the second insulator exists as viewed from the front side of the shell, the partition section being provided to be movable to the outside of the shell.

Abstract: An extension to USB includes an insulative tongue portion and a number of contacts held in the insulative tongue portion. The contacts have four conductive contacts and a plurality of differential contacts for transferring differential signals located behind/forward the four standard USB contacts along a front-to-rear direction. The four conductive contacts are adapted for USB 2.0 protocol and the plurality of differential contacts are adapted for non-USB 2.0 protocol. The extension to USB is capable of mating with a complementary standard USB 2.0 connector and a non-USB 2.0 connector, alternatively.

Abstract: A stacked pluggable cage (100) in accordance with the present invention is adapted for receiving two transceivers (200). The stacked pluggable cage includes a shielding shroud (11) defining a receiving space (13), and a first and a second intermediate walls (12) inserted in the shielding shroud. The first and second intermediate walls are disposed adjacent to each other to divide the receiving space into a first and a second receiving subspaces (13a, 13b) for receiving the transceivers respectively. Each intermediate wall has a body portion (121), and a number of flexible fingers (124) extending rearwardly from the body portion and tilting toward corresponding receiving subspace for grounding corresponding transceiver to thereby improve EMI performance.

Abstract: A connector system includes a first connector comprising a housing holding a plurality of contacts, a second connector comprising a housing holding a plurality of contacts, and a metal shield having walls defining a shielded chamber. The first and second connectors are configured to be mounted to a circuit board in a stacked arrangement next to one another. The first and second connectors are configured to be arranged in a shielded configuration in which the first and second connectors are positioned within the shielded chamber and mounted to the circuit board with the metal shield. The first and second connectors are also configured to be arranged in an unshielded configuration in which the first and second connectors are mounted to the circuit board without the metal shield.

Abstract: A plug assembly includes a shielded housing having an upper shell, a lower shell and a center plate held between the upper and lower shells. The upper shell has at least one upper plug chamber, and the lower shell has at least one lower plug chamber. The center plate is positioned between, and provides shielding between, the upper and lower plug chambers. A plurality of plugs are received in corresponding plug chambers. Each of the plurality of plugs have a plug insert with shield members defining plug quadrants, and each of the plurality of plugs have a plurality of terminals held by the plug insert. The plurality of terminals are arranged in pairs in each of the plug quadrants.

Abstract: A connector (100) includes an insulative housing (1), a set of contacts (3) attached to the insulative housing, an insulator (2) retained in the insulative housing (1) and a metal shell (4) covering the insulative housing and the insulator. The insulative housing has a base portion (11) and a tongue potion (12) extending from the base portion (11). The base portion has a retaining slot (1110) and a pair of side walls (113), each side wall has a protrusion (1131) protruding outwardly from an outer face thereof. The insulator (2) is retained in the retaining slot and has a pair of side surfaces (23) facing inner faces of the side wall. At least one clearance is formed between the adjacent side surface and inner face and is corresponding to the protrusions (1131, 1132) respectively in a transverse direction.

Abstract: A connector assembly is provided that includes a front end mating connector which is received in a socket. The front end mating connector includes a pluggable transceiver, latching mechanism, and passive optical connector. Standard optical ribbon fibers are provided that plug into the passive connector, which in turn plugs into the transceiver. The passive connector and the transceiver are coupled together by the latching mechanism. The coupled connector then plugs into the socket in a first direction. The socket includes electrical connector wafers. As the transceiver is plugged into the socket, circuit boards within the transceiver move in a second direction to engage the wafers. The transceiver has a circuit that converts the optical signals received by the receiver ribbons into electrical signals that are recognized by the wafers and passed to the circuit board.

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 connector system includes a first connector comprising a housing holding a plurality of contacts, a second connector comprising a housing holding a plurality of contacts, and a metal shield having walls defining a shielded chamber. The first and second connectors are configured to be mounted to a circuit board in a stacked arrangement next to one another. The first and second connectors are configured to be arranged in a shielded configuration in which the first and second connectors are positioned within the shielded chamber and mounted to the circuit board with the metal shield. The first and second connectors are also configured to be arranged in an unshielded configuration in which the first and second connectors are mounted to the circuit board without the metal shield.

Abstract: The invention provides a shield case to cover a body, the body having a main body and first and second connecting portions projecting from the main body and lying adjacent to each other along a first direction. The shield case includes first to forth conductive shells. The first and second shells cover an outer circumference of the main body; the third shell covers the first connecting portion; and the fourth shell covers the second connecting portion. The third shell is in contact with at least one of the first and second shells. The first or fourth shell is in contact with the second shell. The fourth shell is provided integrally with the first shell and is adjacent to the third shell along the first direction. The first or fourth shell may not contact the second shell if the third shell is contactable with both the first and second shells.

Abstract: A dual socket connector has an insulative housing assembly, multiple first terminals, multiple second terminals, multiple third terminals and a shell. The insulative housing assembly has a top tongue, a bottom tongue and a partition formed between the top and bottom tongues. The first terminals are mounted on one of the top and bottom tongues for USB 2.0 signal transmission. The second and third terminals are mounted on the other tongue for USB 3.0 signal transmission. The shell covers the insulative housing assembly and defines upper and lower socket holes with the partition for engaging different plug connectors. The dual socket connector is compact and has high compatibility.

Abstract: A plug assembly includes a shielded housing having an upper shell, a lower shell and a center plate held between the upper and lower shells. The upper shell has at least one upper plug chamber, and the lower shell has at least one lower plug chamber. The center plate is positioned between, and provides shielding between, the upper and lower plug chambers. A plurality of plugs are received in corresponding plug chambers. Each of the plurality of plugs have a plug insert with shield members defining plug quadrants, and each of the plurality of plugs have a plurality of terminals held by the plug insert. The plurality of terminals are arranged in pairs in each of the plug quadrants.

Abstract: A stacked electrical connector includes a first insulator and a second insulator mounted together. The first insulator includes a first connector and a receiving opening under a bottom wall of the first connector. The second insulator includes a second connector and a top wall. The bottom wall of the first connector includes a first retention member and the top wall of the second insulator defines a second retention member for mating with the first retention member. The first retention member is a protrusion or a dovetail shaped recess, and the second retention member is a rest of the protrusion or the dovetail shaped recess. The protrusion has an upper narrow section and a lower wide section under a condition that when the protrusion is received in the dovetail shaped recess, a movement therebetween can be prevented.

Abstract: A connector for a fiber channel switch includes an insulation body, a first terminal module and a second terminal module. The first terminal module and the second terminal module are integrated together to form a combination by buckling a first buckling element of the first terminal module and a second buckling element of the second terminal module. The combination is to plug into an assembly slot of the insulation body so as to form major parts of the connector.

Abstract: A connector assembly (100) includes an insulative cover (1) defining a plurality of grooves arranged in a row along a transversal direction; a plurality of connectors (21) accommodated in the grooves, respectively, each of the connectors having a terminal module and a metallic shell enclosing the terminal module; a metallic cage (5) enclosing the insulative cover; and a plurality of conductive members (3), each of the conductive member (3) including a horizontal portion (31) and a vertical portion (32), the horizontal portion having a first tab (311) abutting against the metallic cage, and the vertical portion having a second tab (321) pressing against the metallic shell of a corresponding connector.

Abstract: An extension to USB includes an insulative tongue portion and a number of contacts held in the insulative tongue portion. The contacts have four conductive contacts and a plurality of differential contacts for transferring differential signals located behind/forward the four standard USB contacts along a front-to-rear direction. The four conductive contacts are adapted for USB 2.0 protocol and the plurality of differential contacts are adapted for non-USB 2.0 protocol. The extension to USB is capable of mating with a complementary standard USB 2.0 connector and a non-USB 2.0 connector, alternatively.

Abstract: An electrical connector assembly includes a first and a second electrical connector each having two connector ports. The first connector port of the first connector has an insulating mating tongue with a plurality of contacts thereon and an insulating protecting frame arranged side by side with the mating tongue along a longitudinal direction of the first connector and spaced away from the mating tongue. The second connector port is received in the protecting frame and has a shielding shell surrounding therearound.

Abstract: A cable connector (100) for soldering at a predetermined position with a cable (4) including a number of first wires (41) each having a conductor (412). The cable connector includes an insulative housing (1), a number of contact terminals (2) mounted in the insulative housing, and a pair of shielding shells (3) assembled to the insulative housing. Each contact terminal has a contact portion (21) and a tail portion (22). Each shielding shell is formed with a grounding portion (35) extending toward the tail portion of one of the contact terminals. The grounding portion, the tail portion of one of the contact terminals arrive at the predetermined position and are soldered with the conductor of an associated first wire at the predetermined position.

Abstract: The present invention provides a USB electrical connector having: a plurality of electrical connection units each including a terminal block and at least two rows of conductive terminals embedded in the terminal block. The conductive terminals are embedded in the terminal block by an overmolding process, and wherein each conductive terminal has one end adapted to be electrically connected with a USB plug and the other end adapted to be connected with a printed circuit board. A joint mechanism joins and holds the plurality of electrical connection units, and a fixture fixes the other end of each conductive terminal connected with the printed circuit board. An outer shielding housing encloses the electrical connection units, the joint mechanism and the fixture. The USB electrical connector of the present invention enables a plurality of rows of conductive terminals to be set in stable and good relative positions.

Abstract: A stacked electrical connector includes an upper mating port, a lower mating port, an insulative separate portion separating the upper and the lower mating ports, and an additional metal shell covering the separate portion. The upper and lower mating ports include first and second metal shells, respectively. The additional metal shell includes a main body shielding a front surface of the separate portion and a pair of side walls extending backwardly from the main body to abut against the opposite walls. At least one side wall includes a lower bending portion attached to the second metal shell in order to form a much larger grounding area for EMI protection.

Abstract: A cassette includes a shell having a plurality of shielded channels extending between a front and a rear of the shell. Communication modules are loaded into the shielded channels. The communication modules have front mating interfaces configured for mating with corresponding first plugs and rear mating interfaces configured for mating with corresponding second plugs. The communication modules are loaded into the corresponding shielded channels such that the communication modules are individually shielded from one another. Optionally, the shell may have interior walls defining the shielded channels that extend between the front and the rear.

Abstract: An expanding operating device has a first connector, a second connector and a sensor. The first connector has a first shape physically and electrically connectable with a connector provided with an operating device. Thus, by connecting the first connector to the connector of the operating device, the expanding operating device can be used with the operating device as a single unit, which eventually adds the sensor to the operating device. On the other hand, the second connector has a second shape connectable with a connector with the first shape. This allows a connector conventionally connected to the connector of another operating device to be also connected with the second connector. Accordingly, if the connector of another device is connected the second connector in a state that the first connector is connected to the connector of the operating device, the another device is eventually connected to the operating device via the expanding operating device.

Abstract: A socket connector having a plurality of connectors, and at least one corresponding plug connector inserts into the socket connector. The socket connector includes a shielding housing having a plurality of sidewalls that define at least one receiving slot, and a body provided with the plurality of connectors and a plurality of conductive contacts assembled to each of the plurality of connectors. The plurality of connectors are different types of I/O connectors arranged in a side-by-side manner. The shielding housing encloses a plurality of walls of the body so that the plurality of connectors are located within the at least one receiving slot. The plug connector includes a plurality of contact receptacles, which correspond to the plurality of different types of connectors, which are arranged in a side-by-side manner.

Abstract: An electrical connector assembly having shielded cage assembly with a plurality of ports for receiving modules. In one embodiment, the modules comprise SFP (small form-factor pluggable) modules, and the electrical connector assembly is adapted for low-profile applications, thereby optimizing the amount of area and volume occupied by the SFP assembly. In one variant, the SFP modules are pluggable into individual ports, whereby two modules are interconnected to a single header connector interconnected to a motherboard. Methods of manufacturing the connector assembly are also disclosed.

Abstract: A USB connector includes an electrically insulative housing having a first connection member holding a first terminal set and a second connection member holding a second terminal set, the first and second terminal set each include fixed terminals and springy terminals arranged in four rows, the rear bonding end pieces of the fixed terminals and the springy terminals being respectively bonded to eighteen through holes of a circuit board that are arranged in four rows in such a manner that the first row and the last row each include five through holes and the other two rows each include four through holes; the rear bonding end pieces of the fixed terminals of the second terminal set being disposed in front of the rear bonding end pieces of the springy terminals of the second terminal set.

Abstract: An USB application device includes a housing having a received room therein and a front opening connected to the received room, a PCB having opposite a rear end portion completely received in the receiving room and a front end portion completely extended outside the housing from the front opening and opposite a top surface and a bottom surface, contacts disposed on the top surface of the front end portion of the PCB and exposed outside of the housing, a shell engaged with the housing and completely covers the front end portion of the PCB and the contacts, and a protection element received in the shell and covering the bottom surface of the front end portion of the PCB. The contacts are exposed outside the protection element. The shell is made of metal material for improving ESD protection in order to comply with the USB standard specification.

Abstract: A terminal module for assembly into a high-speed electrical connector having a contact receiving first contact pair and second contact pair, the second contact pair being in electrical communication with the first contact pair via a corresponding pair of contact interconnections. The contact interconnections have a substantially identical length of the corresponding pair and are arranged within parallel planes. The module further includes a shielding member arranged and disposed in close proximity to at least three edges of one or more of the first contact pair, the second contact pair and the contact interconnections to provide shielding. A housing member is arranged and disposed to receive backplane contacts via contact receiving apertures. The housing member is engaged with the first contact pair to receive the contacts into the contacts of the first contact pair. A backplane having grounding plate grid is also disclosed.

Abstract: A cassette includes a shell having a housing and a cover mated together to define an inner chamber. The housing has a plurality of plug cavities configure to receive plugs therein. A contact subassembly is received in the inner chamber. The contact subassembly has a circuit board and a plurality of contacts coupled to the circuit board. The contacts are arranged in contact sets that are received in corresponding plug cavities to mate with different corresponding plugs. A latch member couples the housing to the cover. The latch member has a latch element configured to secure the shell to a panel.

Abstract: A connector assembly includes a housing having a front and a rear and openings in an outer periphery of the housing. Contact modules are received in the housing through the rear. The contact modules extend from the rear of the housing. The contact modules have grooves in an outer periphery of the contact modules. A back shell is coupled to the housing and the contact modules. The back shell has housing tabs extending therefrom being received in the openings of the housing to secure the back shell to the housing. The back shell also has contact module tabs extending therefrom being received in corresponding grooves of the contact modules to secure the back shell to the contact modules. The back shell peripherally surrounds the contact modules.

Abstract: A connector system includes an upper electrical connector having a housing that defines an open bottomed cavity defining a cavity envelope and that defines a mating interface for a mating connector. The upper electrical connector further has contacts mounted to the housing and extending along the mating interface. The connector system includes a first lower electrical connector mountable to a circuit board that has a first outer envelope adapted for fitting in the cavity envelope, and a second lower electrical connector mountable to a circuit board that has a second outer envelope adapted for fitting in the cavity envelope. The upper electrical connector is separately mountable to the circuit board over each of the first lower electrical connector and the second lower electrical connector. Optionally, the upper electrical connector may be mountable over only one of the first lower electrical connector and the second lower electrical connector at a time.

Abstract: A stacked electrical connector includes an upper mating port, a lower mating port, an insulative separate portion separating the upper and the lower mating ports, and an additional metal shell covering the separate portion. The upper and lower mating ports include first and second metal shells, respectively. The additional metal shell includes a main body shielding a front surface of the separate portion and a pair of side walls extending backwardly from the main body to abut against the opposite walls. At least one side wall includes a lower bending portion attached to the second metal shell in order to form a much larger grounding area for Electromagnetic Interference (EMI) protection.

Abstract: An electrical connector has an insulating housing defining a recess. A receiving plate extends frontward from a rear surface of the recess and spaced apart from a bottom surface thereof. A shell coupled with the insulating housing to form an insertion space where the receiving plate is located has a connecting plate located between the receiving plate and the bottom surface of the recess. A portion of the connecting plate is extended and curved upwards and then curved downwards and upwards sequentially to form a substantial split ring-shaped resilient element. The resilient element comprises an upper resistive portion located adjacent to the receiving plate and a lower resistive portion located adjacent to the bottom surface of the recess. A free end of the lower resistive portion extends obliquely upwardly to form a connecting portion. A distal end of the connecting portion forms a propping portion located above the connecting plate.

Abstract: An electrical connector includes a housing having a plug receiving cavity with an open end for receiving a plug and with an inner end spaced from the open end, and having a forward chamber outside of the cavity and adjacent the open end. A mounting circuit board is in the housing adjacent the inner end. A plurality of pairs of electrical jack contacts have mounting ends engaging the mounting circuit board, plug contacting portions extending through the cavity from the mounting end toward the open end, and free ends extending from the contacting portion into the forward chamber. A compensation circuit board is mounted in the forward chamber of the housing outside of the plug receiving cavity, and has a compensation circuit with conductive pads. The free ends of the jack contacts engage the conductive pads. A spring in the forward chamber biases the compensation circuit board towards the free ends of the jack contacts.

Abstract: A connector system is provided that includes electrical connectors, a substrate and a vibration dampening shell. The connectors each have first and second sides. The substrate has an upper surface with the connectors mounted thereon. The shell limits movement of the connectors with respect to one another and is coupled to the first sides of the connectors to limit the movement of the connectors toward and away from the upper substrate. The shell also is coupled to the second sides of the connectors to limit the movement of the connectors in directions transverse to the upper substrate surface.

Abstract: An interface module includes a housing having a plurality of jack openings configured to receive shielded modular jacks therein. The housing has a mounting wall extending along one side of the jack openings. A bond bar is coupled to the mounting wall, wherein the bond bar has a jack interface configured to engage respective ones of the shielded modular jacks and a panel interface configured to engage a mating surface of a panel. The bond bar is configured to create an electrical connection between respective ones of the shielded modular jacks and the mating surface of the panel.

Abstract: An electrical connector (100) includes an insulative housing (1), a plurality of contacts (2) retained in the insulative housing (1) and a metal shell (3). The insulative housing (1) has a base portion (111). The base portion (111) has a front face (112), a top face (113) and a mounting face (114) opposite to the top face (113). The insulative housing (1) has a tongue (115) extending forwardly from the front face (112). The tongue (115) has a left face (1151) and a right face (1152). The metal shell (3) comprises a left wall (34) and a right wall (35). Each contact (2) has a contact portion (211, 221) extending to the left face (1151) of the tongue (115). The space between the left face (1151) and the left wall (34) is larger than that between the right face (1152) and the right wall (35).

Abstract: A USB connector fabrication method includes the steps of (a) stamping a metal sheet into a terminal set having a set of first terminals, a set of second terminals and material bridges joining the first terminals and the second terminals, (b) preparing an electrically insulative housing having punch holes and then mounting the terminal set in the electrically insulative housing to keep the material bridges in vertical alignment with the punch holes, (c) using a machine to cut off the material bridges and (d) securing a metal shield around the periphery of the electrically insulative housing.

Abstract: A connector module that is mounted on a motherboard and is configured to realize connection between a cable side connector and the motherboard is disclosed. The connector module includes a printed circuit board, plural substrate side connectors that are mounted on the front surface of the printed circuit board and arranged into plural rows with differing heights, and a mounting connector that is mounted on the rear surface of the printed circuit board. At least one of the substrate side connectors is connected to the cable side connector. The mounting connector is engaged with and connected to a motherboard side connector that is mounted on the motherboard. The printed circuit board includes a pattern that is configured to realize electrical connection between the substrate side connectors and the mounting connector.

Abstract: An electrical connector (100) for mating with a corresponding plug (200) includes a dielectric housing (1) defining two contact areas (15) along an up to down direction. An outer shield (3) encloses the dielectric housing. A plurality of contacts (2) are retained in the contact areas. An inner shield (4) are mounted between two contact areas and comprises a pair of spring arms (42) extending into the contact area to lock with the plug and a resilient strip (43) extending into the contact areas to abutting against an outer side of the plug.

Abstract: A receptacle connector comprising an insulative housing having a base portion; a plurality of terminals retained in the insulative housing; and a shielding shell assembled on the insulative housing. The shielding shell comprises a pair of sidewalls opposite to each other and forming a mating cavity therebetween. The insulative housing further including an alignment wall extending into the mating cavity from the base portion to partition the mating cavity into a number of mating openings, one of the mating opening having a shape different from another. Wherein at least one of the sidewalls has a bent portion bent from a front edge thereof, and the bent portion defines a hook at the tip thereof for adapting to retention at least one hole of the alignment wall of the insulative housing. Therefore, the strength of the receptacle connector may be improved.

Abstract: A modular jack (100) adapted for receiving a pair of mating connectors includes an insulative housing (1) having a pair of cavities (10) for receiving the corresponding mating connectors, a number of terminal modules (3) received in the cavities for electrically connecting with the mating connector, and a conductive outer shield (2) enclosing the corresponding insulative housing. The modular jack further has a detachable grounding member (7) made from conductive material and electrically connected with the conductive outer shield for grounding. The grounding member has a number of contacting plates (7121,7131,7141) extending into the corresponding cavities for connecting and grounding the corresponding mating connectors.

Abstract: A connector and an electronic apparatus and a combination comprising the connector for first and second joints are disclosed. The connector includes a base, a plurality of first pins, and a plurality of second pins. The base has a first and a second connecting surface. The first pins are disposed on the first connecting surface and the quantity of the first pins is the same as the pin quantity of the first joint. In addition, the second pins are disposed on the second connecting surface and the total quantity of the second pins and the first pins is the same as the pin quantity of the second joint. The base may include two convex parts and a concave part. The first connecting surface and the second connecting surface are disposed on surfaces of the two convex parts respectively. The concave part accommodates the two convex parts.

Abstract: An electrical connector (100) includes an insulative housing (10), a number of first contacts (20), a contact module (30) and a metallic shell (40). The insulative housing has a mating face (14), a first receiving cavity (15) and a second receiving cavity (16) recessed from the mating face. The first contacts are disposed in the insulative housing. The contact module is received in the second receiving cavity and has an insulative base (31), a number of second contacts (32) and a shielding plate (33). The metallic shell is attached to the mating face of the insulative housing and having a plate section (41) defining a central opening (410) in alignment with the first receiving cavity, and a pair of opposite ends (42) extending from the plate section and inserted in the insulative housing. The metallic shell has electrical connection with the shielding plate of the contact module.

Abstract: A cable assembly comprises a housing defining a first cavity, a second cavity and at least one third cavity extending rearwardly from a front surface thereof, each third cavity communicated with the first cavity or the second cavity. At least one first and second electrical connector are respectively received into the first and second cavity, each first and second electrical connector defines a metallic shell thereof. At least one first cable and second cable electrically are respectively connected with the first and second electrical connector. At least one plastic piece assembled with at least one grounding piece is received into each third cavity, the grounding piece contact with the metallic shell of the first or second electrical connector. A shielding member is assembled to the housing and contacted with the grounding piece.

Abstract: An extension to USB includes an insulative tongue portion and a number of contacts held in the insulative tongue portion. The contacts have four conductive contacts and a plurality of differential contacts for transferring differential signals located behind/forward the four standard USB contacts along a front-to-rear direction. The four conductive contacts are adapted for USB 2.0 protocol and the plurality of differential contacts are adapted for non-USB 2.0 protocol. The extension to USB is capable of mating with a complementary standard USB 2.0 connector and a non-USB 2.0 connector, alternatively.

Abstract: A shield for reducing impedance of a shielding of a SCART connector at high frequencies, the shield including a metallic sheet having a first end and a second end where each of the first and second ends extends along and adjacent to a surface of a SCART connector socket. A shielding assembly and a method for shielding a SCART connector are also disclosed.

Abstract: A stacked electrical connector includes an upper mating port, a lower mating port, an insulative separate portion separating the upper and the lower mating ports, and an additional metal shell covering the separate portion. The upper and lower mating ports include first and second metal shells, respectively. The additional metal shell includes a main body shielding a front surface of the separate portion and a pair of side walls extending backwardly from the main body to abut against the opposite walls. At least one side wall includes a lower bending portion attached to the second metal shell in order to form a much larger grounding area for EMI protection.