Abstract: A right-angled backplane connector (100) includes an insulative housing (20), a number of contacts (40) received in the housing (20), and a spacer (60) assembled to the housing. The housing (20) forms a front mating portion (22) adapted to mating with a mating connector and a rear mounting portion (24) integrally connected to the mating portion (22). The mounting portion (24) defines a bottom wall (244) adapted to be mounted on a printed circuit board. A number of mounting posts (248) protrudes from the bottom wall (244) to engage in a corresponding number of mounting holes defined in the printed circuit board. The mounting portion (24) further defines inserting slots (240) for a part of a fixture to be inserted therein to support the contacts when the contacts (40) are inserted into the housing (20) by the fixture.

Abstract: A transformer with a connector is described, having a primary side and a secondary side and composed of a winding base, a core and windings, wherein the core is inserted into the winding base and the windings are wound on the winding base, and the transformer is characterized in that a connector is disposed at the secondary side of the transformer and connected to an external connector disposed at a load to which a signal fed through the primary side to the transformer is outputted when the connector and the external connector are connected to each other. In the transformer, the connector conventionally disposed on the circuit board is disposed on the transformer, saving the space that would otherwise be needed for connection wires between the transformer and the connector. Therefore, the circuit board has a reduced area, effectively saving the manufacturing cost for a product to which the circuit board is applied.

Abstract: An EMI-resistant circuit board assembly includes a plurality of circuit boards arranged in a stack and a metal shielding frame respectively sandwiched in between each two adjacent circuit boards. One of the circuit boards has at least one high-speed device producing high-frequency noises to the ambient, which result in EMI effect. The metal shielding frame is electrically connected to the ground potential of the circuit boards and shields the high-speed device on the circuit board to guide the high-frequency noises to the ground potential.

Abstract: An electrical connector for connecting electrically an electronic card to a printed circuit board includes an insulative housing (10) and at least one piece of lower terminal (12) comprising a mating portion (121), the mating portion receiving in a bottom wall (131) and extending into a mating slot (135), a rising portion (125) which extending from the back-end of said mating portion upwardly, a main portion (122) extending rearwardly from a top end of said rising portion and a mounting portion (124) extending downwardly from the back-end of said main portion.

Abstract: An electrical connector for terminating at least one electrical conductor comprises a first side and a second side each comprising a housing including a cavity for receiving at least a first IDC element, a cap including a pivot portion and a cover portion, where the pivot portion is pivotally mounted to the housing to allow the cap to be pivoted between an open position and a closed position, at least one recess in the pivot portion of the cap, and a cutting edge within the cavity of the housing adjacent to the recess in the pivot portion of the cap.

Abstract: An electric connector has an insulating body, a plurality of conductive terminals installed in the insulating body. The conductive terminals have a first set of conductive terminals and a second set of conductive terminals. The first set of conductive terminals are made of different materials from the second set of conductive terminals so as to reduce the impedance between the first set of conductive terminals and the second set of conductive terminals. The electric connector can reduce impedance among conductive terminals so as to increase electric functions, because the different conductive terminals are made of different materials.

Abstract: An electrical connector in accordance with the present invention comprises an upper connector including an upper housing which defines an elongated first receiving slot and has a heighten portion below the receiving slot and a plurality of contacts retained in the upper housing, and a lower connector including an lower housing defining a second receiving slot and a plurality of contacts retained in the lower housing. The lower housing has a plurality of protruding portions on a rear surface thereof, the protruding portions face to a front surface of the heighten portion of the upper housing to space two adjacent rows of contacts respectively extending out from the upper housing and the lower housing.

Abstract: A stacked electrical connector has an insulative housing (1), a plurality of signal contacts (23, 26) and a pair of contacts (24, 27, 25, 28) retained in the housing. The housing defines a mounting surface (19) for mounting on a printed circuit board and a receiving space (12) for receiving a mating plug (9). The switch contact includes a base portion retained in the housing and a spring arm extending from the base portion. An insulative separator (245) is formed on one spring arm and projects into the receiving space. The separator is moveable in a plane vertical to the mounting surface. When the mating plug inserts into the receiving space, the separator rotates and drives one switch contact to connect with the other switch contact.

Abstract: An electrical connector to be electrically connected to a transmission cable plug. The connector includes a plastic base, a metal housing and at least one fastening assembly. At least one connection slot and a plurality of terminals are formed on the plastic base. Each of the terminals has a pin portion extending out of the plastic base. The metal housing covers the plastic base while exposing the at least one connection slot of the plastic base and the pin portions of the terminals to the outside. The at least one fastening assembly contacts the metal housing and thus is electrically connected to a circuit board. The at least one fastening assembly and the metal housing pertain to different parts.

Abstract: A card socket assembly includes a plurality of sockets situated in multiple stages for receiving cards and a pair of fixing members disposed at both sides of the sockets for fixing the sockets to a circuit board. Each of the fixing members includes a fixing portion to be fixed to the circuit board and a holding portion for holding the socket. The holding portion of one of the fixing members includes a first holding member for holding all of the sockets. The holding portion of the other of the fixing members includes a second holding member for holding one of the sockets and an elastic holding member for holding the others of the sockets separately and elastically.

Abstract: A wireless communication device includes a housing including a front, a rear, a top, a bottom, a left side, and a right side, and a printed circuit board carried by the housing and carrying electronics for operation of the wireless communication device. The printed circuit board defines a plane, and a socket is disposed in the housing and connected to the circuit board. The socket is configured to allow substantially perpendicular receipt of a removable memory device relative to the plane defined by the printed circuit board, in a manner such that the socket defines a plane substantially perpendicular to the plane defined by the printed circuit board.

Abstract: The present invention relates to methods and systems for minimizing alien crosstalk between connectors. Specifically, the methods and systems relate to isolation and compensation techniques for minimizing alien crosstalk between connectors for use with high-speed data cabling. A frame can be configured to receive a number of connectors. Shield structures may be positioned to isolate at least a subset of the connectors from one another. The connectors can be positioned to move at least a subset of the connectors away from alignment with a common plane. A signal compensator may be configured to adjust a data signal to compensate for alien crosstalk. The connectors are configured to efficiently and accurately propagate high-speed data signals by, among other functions, minimizing alien crosstalk.

Abstract: This invention discloses a stackable connector assembly, which includes a first connector, a second connector, a shielding member, a contact member, and a ground member. The second connector is placed above the first connector. The shielding member is covered on the first connector. The contact member is used for connecting the shielding member and the ground member. This structure can reduce the electromagnetic radiation from the first connector.

Abstract: A subassembly (10) for a lamp base, the subassembly (10) has an outer (12) housing having a circumferential wall (14) and a top (16) closing one end (18) of the outer housing (12); at least one lamp receiving aperture (20) in the top (16); and an inner housing (22) contiguous with an entire inside surface (24) of the outer housing (12), the outer housing (12) being a metallic material and the inner housing (22) comprising a plastic material.

Abstract: A system including a circuit board and several pluggable modules coupled to the circuit board. The several pluggable modules are insertable through side-by-side slots in an enclosure in which the circuit board resides. A first pluggable module is coupled to the circuit board via a first connector, while a second pluggable module is coupled to the circuit board via a second connector such that the second pluggable module is laterally offset from the first pluggable module. The first and second connectors are right angle connectors, and the second right angle connector is inverted relative to the first right angle connector. The first and second pluggable modules are I/O modules for transporting high speed differential signals, and wherein the first pluggable module includes several XFP connectors, and wherein the second pluggable module includes several SFP connectors. The second pluggable module includes several SFP connectors arranged on both sides of the pluggable module.

Abstract: A stacking device for sheet products, comprising at least one wheel associated with rotary actuation means that has at least one plurality of tangential peripheral receptacles for accommodating already-folded products fed by a conveyor to at least one pick-up station, at least one first product deposition station, provided with a first fixed stop element for engaging the products accommodated in the receptacles and with a first movable supporting surface for picking up a first stack of products extracted from the receptacles, and at least one second product deposition station, which is provided with a second upper stop element and a second lower stop element, movable in opposition and both suitable to engage products accommodated in the receptacles, and with a second movable supporting surface suitable to pick up a second stack of products extracted from the receptacles.

Abstract: An electrical connector assembly (100) mounted on a printed circuit board (PCB) includes an insulative housing (1) defining a pair of stacked receiving cavities (15, 16) for receiving a first and a second connector components (2, 3) therein, a holder (4) attached to the insulative housing and a metal shield enclosing the insulative housing. The holder (4) is fixed to a rear wall (14) of the insulative housing (1) and includes a vertical mating portion (41) and a pair of top and bottom portions (42, 43) extending backwardly from the mating portion. The top and bottom portions (42, 43) are parallel to each other wherein the top portion (42) is shorter than the bottom portion (43). An area of the top portion is smaller than that of the bottom portion.

Abstract: The invention is to provide a detachable electrical connector, which comprises a seat having an upper first recess with a first connecting member disposed therein, a lower second recess adjacent the first recess and being in communication thereto, and a third recess besides the second recess with a second connecting member disposed therein, wherein the second recess is adapted to receive an attachment member which is capable of protecting a plurality of conductors and includes ridges for spacing any two adjacent first conductors for preventing a potential short circuit from occurring. Thus, the first and second connecting members are spaced from each other and facing different directions.

Abstract: A board has connectors for interfacing to external devices mounted at a rearward edge of the board, minimizing the need to make connections and route connecting cables in the space between the board and adjacent boards installed in a computer system. In one embodiment the board is a RAID controller board and comprises a first edge portion configured to mate with a housing of a computing device, a second edge portion adjacent to the first edge portion and having an edge connector to interface the board with a corresponding slot in a computing device, at least one connector mounted proximate to a third edge portion located opposite the first edge and adapted to provide a data transfer connection with at least one compatible storage device, and a control circuit connected to the edge connector and at least one connector on the board to control the operation of the storage device.

Abstract: A stacked electrical connector includes a dielectric housing having an upper face opposite a mounting face and opposed sides between the upper face and the mounting face. The housing holds one row of contacts in a lower contact area between lower side sections of the housing. Two rows of contacts are held in an upper contact area. The housing includes an unshielded spacing section separating the upper and lower contact areas. A lower shield includes a shroud surrounding the lower contact area and side panels that cover the lower side sections of the housing. An upper shield includes a shroud that surrounds the upper contact area.

Abstract: A connector socket module is disclosed that includes a connector socket module main body and a holder member configured to hold the connector socket module main body. The connector socket module main body includes a relay board; multiple I/O connector sockets of which a corresponding one is to be connected to a connector plug, the I/O connector sockets being arranged on a first face of the relay board; and a mounting connector mounted on a second face of the relay board facing away from the first face to be connected to a connector on a main board. The holder member covers a side of the connector socket module main body on the side of the second face of the relay board, is formed by bending a metal plate member of a predetermined shape, and has a part to be fixed to the main board.

Abstract: A stacked RJ21 receptacle (100) for mating with a mating connector includes a first RJ21 receptacle (2) and a second receptacle (3). An outer shield (1) shields the first and second receptacle. The first and second RJ21 receptacle each has a projecting portion projecting beyond the outer shield. The stacked RJ21 receptacle (100) further includes at least a printed circuit board (5) and a noise suppressing element (4) respectively electrically connecting with the first and second receptacles.

Abstract: A multiple vertically stacked connector is capable of minimizing the occupied area of connectors stacked on a printed circuit board, and also effectively reducing electromagnet interference generated by stacked connectors. The multiple stacked connector structure includes: a printed circuit board adapted to provide a plurality of connectors vertically stackable thereon, the connecting ground pin of each of the plurality of connectors being respectively connected to the printed circuit board, wherein a groove formed on the printed circuit board spaces apart the regions where the connectors are connected on the printed circuit board.

Abstract: A small size connector has an insulative housing and two edge card-receiving slots disposed in a stacked arrangement with in the connector housing. Each slot receives an edge card of an electronic module therein. The slots support conductive terminals that extend from a plurality of individual terminal assemblies. The terminal assemblies include clip members that engage an opposing shoulder formed on the interior of the connector housing. The front face of the connector is provided with various engagement openings that receive engagement members of light pipe assemblies and shielding assemblies, so that when assembled, the connector, shield, terminal assemblies and light pipes all act as a single, integrated component.

Abstract: A mounting apparatus for mounting a circuit board that is electrically connectable with at least one hard disk drive, includes a chassis for receiving the circuit board, a bracket for receiving the at least one hard disk drive, and a securing member for pressing the circuit board. The bracket is mounted to the chassis. A rear end of the bracket faces the circuit board. The securing member is pivotably mounted to the bracket.

Abstract: An advanced modular plug connector assembly incorporating an insert assembly disposed in the rear portion of the connector housing. In one embodiment, the connector has a plurality of ports in multi-row configuration, and the insert assembly includes a substrate adapted to receive one or more electronic components such as choke coils, transformers, or other signal conditioning elements or magnetics. The substrate also interfaces with the conductors of two modular ports of the connector, and is removable from the housing such that an insert assembly of a different electronics or terminal configuration can be substituted therefor. In this fashion, the connector can be configured to a plurality of different standards (e.g., Gigabit Ethernet and 10/100). In yet another embodiment, the connector assembly comprises a plurality of light sources (e.g., LEDs) received within the housing. Methods for manufacturing the aforementioned embodiments are also disclosed.

Abstract: A power supply stacked output port structure installed on a power output end of a power supply to integrate and output transformed DC power of a circuit board in the power supply. The structure includes a base output port which contains a first connector and a second connector that are arranged in a juxtaposed manner. A stacked output port is provided and horizontally located above the base output port that has at least a third connector. The third connector is electrically connected to the circuit board of the power supply through transmission lines. The stacked output port structure thus formed can increase the number of external equipment to be connected. The transmission lines used on the third connector can achieve more stable electric connection.

Abstract: An electrical card connector (1) includes an insulative housing (10) enclosed by a metallic shield (28). The housing (10) defines a receiving space (18) with first and second sets of contacts (22, 24) disposed in the housing (10) and communicating with the receiving space (18). A protection door (40) is pivotally mounted to the housing (10) in an entrance opening (19) blocking the receiving space (18) from an exterior. A moveable locking member (60) releasably locks the protection door (40). The protection door (40) defines a cutout to leave a small entrance opening (46) to allow a small sized card (300) to be guidably and snugly inserted into the receiving space (18) wherein the protection door (40) is equipped with another small pivotal anti-dust door (56) to cover that small entrance opening (46). Therefore, the card connector (1) can mutually exclusively receive the large sized card (200) and the small sized card (300) guidably and reliably.

Abstract: A socket assembly comprises a plurality of sockets (1 and 2) piled up in multiple tiers in the order of length of the sockets (1 and 2). Each of the sockets (1 and 2) has an opening (11 and 21), an accommodation space to receive a card (C1 or C2), and a closing member (12). A plurality of terminals are provided in the closing member (12) and have connection portions (4 and 5) on rear sides thereof extending rearwardly into the outside of the accommodation space and bent downwardly at right angles. At least part of the connection portion (4) of the lower-tier socket (1) is accommodated in a stepped space (3) defined by the rear end face of the lower-tier socket (1) and the rear lower face of the upper-tier socket (2).

Abstract: A card connector assembly (1) includes an insulating housing (21, 22), a number of contacts (211, 222), a daughter board (7), a rear socket (8) and a spacer (6). The insulating housing (21, 22) defines a card receiving space. Each contact (211, 222) comprises a contacting portion and a soldering portion. The daughter board (7) comprises a plurality of conductive portions. The rear socket (8) is adapted to be mounted to a mother board and to electrically connect with the daughter board (7) to establish an electrical connection between the contacts (211, 222) and the mother board. The spacer (6) is formed with a holding portion (65) on lateral side faces thereof with one end assembled to the insulating housing (21, 22) and the other end mating with the daughter board (7) to securely hold the soldering portions of the contacts.

Abstract: An electrical connector to be electrically connected to a plug includes a plastic base, a metal housing and an engaging element. A connection slot and terminals are formed on the base. Each terminal has a pin portion extending out of the plastic base. The metal housing covers the plastic base while exposing the connection slot and the pin portions. The engaging element has a fixing part and an elastic engaging piece which is located within the connection slot. A projecting engaging portion, which is near a distal end of the engaging element and engages with the plug, is formed. The metal housing is composed of a thin metal plate which is bent. The engaging element and the metal housing pertain to different parts. A thickness of the engaging element is greater than that of the metal housing. The engaging element is assembled in the plastic base through the fixing part.

Abstract: A card holder for a mobile electronic device for receiving accessory cards, which includes a substantially cuboidal housing having an open front face for inserting accessory cards, the housing including a back face, a left and a right lateral face, and a top and a bottom face, at least two guiding elements protruding from the interior side of the left and right lateral faces, respectively, and extending parallel to and between said top and said bottom face. The guiding elements define an upper slot of a first height h1 between the top face and the guiding elements and a lower slot of a second height h2 between the bottom face and the guiding elements, for receiving accessory cards of first height h1 and second height h2, respectively, and the upper and the lower slots together define a combined slot for receiving an accessory card of a third height h3.

Abstract: A composite audio/video output connector comprises an insulating base, a first connecting port with a flat connecting surface and a second connecting port with a transversally extended inserting post disposed at and its upper and middle section of the base respectively, and the lower base includes a third connecting port comprising an optical fiber sheathing base, a one-way doorstop with a U-shape dual axial springs for embedding the optical fiber sheathing base into a base chamber at the lower section of the base; a front casing corresponding to each connecting port to form a slot and a folded edge formed on each of the four sides of a panel for connecting the front edge of the base; and a sealed cover having pin holes for extending the pins of a metal terminal and an optical element and engaging the sealed cover to an opening at the bottom of the base.

Abstract: A multiple pieces type dual type BNC connector with all metal shell comprises a rear section casing combined with a plurality of middle section casing, each middle casing is combined with a front section casing; an accepting room formed by the each front section casing, the middle section casing combined therewith and the rear section casing is combined with a insulator, the insulator is combined with a BNC terminal, in which at least one of the rear section casing and the front section casing has a combining groove, at least one of the middle section casing and the front section casing has a combining section, the combining section is engaged in the combining groove.

Abstract: A coaxial connector with all metal shell comprises a metalwork casing in which at least one positioning hole is disposed; an insulator is accepted in the positioning hole; a terminal is accepted in the insulator; a rear receiving room is disposed at the rear end of the casing; a breach is disposed at one flank side of the rear receiving room; an insulating tenon is combined at the inside of the breach of the rear receiving room; the insulating tenon has a plurality of through holes; at least one ground at the rear end of the casing and a lead wire at the rear end of the terminal is extended out of the casing after being respectively passed the through holes.

Abstract: A SCSI port 8 includes a conductor assembly 7 including first plates 3A including first and second conductors 6A and 61 at two adjacent sides, mated first plates 3B including first and second conductors 6B and 61 at two adjacent sides, the first plates 3A matingly, alternately assembled with the mated first plates 3B, and two second plates 4 mounted on both ends of the assembled plates 3A and 3B. The first conductors 6A and 6B are formed as two groups of conductor members 62, each group having two rows of the conductor members 62. The conductor members 62 are lockingly inserted into apertures 20 of insulative upper and lower conductor housings 2 which are mounted in an alloy frame 1 and have two projected portions being covered by the frame 1. Mounting legs 5 have one ends in the frame 1 and the other ends in a PCB.

Abstract: A stacked microphone jack assembly includes two identical microphone jacks each having a housing, which has a front plughole for receiving a microphone plug and two rows of vertical through holes, and conducting terminals each having a head extending to the inside of the housing for the contact of the plug of a microphone and a leg downwardly extending out of the bottom side of the housing, and a connector, which has a base sandwiched between the housings of the two microphone jacks, and a connection terminals respectively fastened to terminal slots on the base, each connection terminal having a clamping portion for clamping the legs of the conducting terminals of the overlying microphone jack respectively and a leg downwardly extending from the clamping portion and respectively inserted through the vertical through holes of the underlying microphone jack.

Abstract: A SCSI connector assembly includes a housing including forward upper and lower plates either having top and bottom grooves, a rear staged seat including upper and lower platforms and an intermediate, longer platform; four stacked rows of conductors of different configurations, each conductor including an electrical terminal and a bifurcation at both ends, the conductors passed through the housing to seat on the grooves; flat cables connected to the conductors and fastened by the bifurcations; a metal case secured to the housing; and four mounting boards each including two side pegs and two rows of valleys separated by a channel. The mounting boards are mounted on tops and bottoms of the platforms by inserting the pegs into side holes of the platforms. The cables are fastened by the valleys.

Abstract: This invention is related to an electrical connector assembly (10), the electrical connector assembly includes an insulative housing (1) defining a first aperture (112) and a second aperture (111) therein for receiving a complementary USB connector and a complementary RJ-45 connector respectively, a contact module (2) received in the insulative housing, an inner shield inserted in the first aperture along a mating direction of the mating of the complementary USB connector, and an outer shield (4) enclosing the insulative housing. The inner shield has two opposite plates and a plates-interconnecting section sandwiched between the outer shield and the insulative housing.

Abstract: A modular connector for electrically connecting a modular plug to a mother board includes an insulative housing having a vertical front mating face and an electrical module mounted in the housing. The electrical module includes a front PCB parallel the mating face, two mutual parallel second electric circuit boards perpendicularly connecting to the front PCB, and a number of magnetic coils directly mounted on the rear PCBs.

Abstract: A structure of a USB connector comprising an isolation chassis and an electric module is provided. The circuit board has a plurality of interconnection-terminals and a plurality of adaptor-terminals, wherein the power wave-filter module is positioned in a positive and negative power line of the circuit board and electrically connects to a first terminal and a fourth terminal of the interconnection-terminals and the signal wave-filter module is positioned in a signal line of the circuit board and electrically connects to a second terminal and a third terminal of the interconnection-terminals so as to cancel noise generated during signal transmission.

Abstract: A system for providing dual 10 GB uplinks in the front side of a single rack unit switch that stacks two MSA X2 I/O devices in a limited space. In one embodiment the two X2 I/O devices are mounted on opposite sides of a single circuit board positioned above the motherboard.

Abstract: A receptacle connector with latch mechanism includes a receptacle housing which has a mating face, a plurality of sidewalls defining a cavity opening to the mating face, and a plurality of contacts receiving chambers formed in the cavity, a plurality of contacts received in the chambers, and a shielding cover having a plurality of side panels enclosing the sidewalls of the receptacle housing. One sidewall defines a pair of slots opening to the mating face, thereby forming a cantilevered latch arm between the pair of slots. One side panel defines a pair of gaps corresponding to the pair of slots, thereby forming a cantilevered elastic slice between the gaps that acts coordinately with the cantilevered latch arm to latch a mating plug connector when the mating plug connector is inserted into the cavity of the receptacle housing.

Abstract: A connector connected to a printed circuit board. The connector comprises a first conducting member, a second conducting, and an insulating base. The first conducting member has a first horizontal section, and the second conducting member has a second horizontal section. The insulating base comprises a body and a supporting portion. The body fixes the first and second horizontal sections, and the supporting portion abuts the printed circuit board so that the first and second horizontal sections maintain a predetermined orientation with the printed circuit board.

Abstract: A stacked electrical card connector assembly comprises an upper electrical connector (1) having a row of first tail portions (121), a lower electrical connector (2) stacked with the upper electrical connector (1) and having a row of second tail portions (221) having bigger width than the row of the first tail portions (121), a locator (51) assembled to a bottom surface of a rear end of the lower electrical connector (2) and receiving the first and second tail portions (121, 221), and a socket (52) adapted to be mounted on a printed circuit board and provided with a first and second terminals (521, 522) for electrically connecting with corresponding the first and second tail portions (121, 221) when the locator (51) is inserted into the socket (52).

Abstract: A memory card connector assembly is provided for mounting on a printed circuit board. The assembly includes a first memory card connector for mounting on the circuit board and including a housing defining a bottom card-receiving space for receiving a first memory card. A plurality of terminals are provided for electrically connecting appropriate contacts on the first memory card to the circuit board. A second memory card connector is provided for mounting over the top of the first connector. The second connector includes a housing defining a top card-receiving space for receiving a second memory card, along with a plurality of terminals for electrically connecting appropriate contacts on the second memory card to the circuit board.

Abstract: A plug for the speaker cables of the invention comprises a plug main body involving terminal loading slots for positive and negative polarities on the front thereof, loading slots for cables in response to both polarities on the rear thereof, and a hollow inside thereof, wherein first tongues for holding terminals functioning to hold speaker terminals are inserted from the terminal loading slots from the external surface thereof by spring action, second tongues for holding cables connected to the tongues for holding terminals and functioning to hold stranded wires of speaker cables are inserted from the cable loading slots from the external surface thereof by spring action, and third tongues for holding cables are formed so as to expand sections for holding cables by operating pieces disposed so as to be exposed outside the plug main body.

Abstract: An electrical card connector (1) stacking on a bracket (2) for receiving a hard disk drive comprises an insulating body (3) having a transverse wall (31) far from a front edge (22) of the bracket (2) and relatively adjacent to a rear edge (23) of the bracket (2), a shielding shell (7) covering on the insulating body (3), and a plurality of terminals (5) retained in the insulating body (3). Each terminal (5) has a securing portion secured in the transverse wall (31), an engaging portion (50) extending ahead from the transverse wall (31) for electrically connecting with the electronic card, and an extended portion (51) extending backwardly from the transverse wall (31) and towards and further beyond the rear edge (23) of the bracket (2).

Abstract: A card connector includes an insulating housing (10) and a number of contacts (20) received in the insulating housing (10). The insulating housing (10) comprises a base (11) and a pair of guiding arms (12) extending from opposite lateral sides of the base (11) along a card ejecting direction and defining a card receiving space; The insulating housing (10) is formed with a pair of mating portions (13) in which the contacts (20) are received, The mating portions extend from the base (11) along the card ejecting direction to expose into the card receiving space at a position of upper and lower sides. Each guiding arm (12) is formed with one or more intermediate portions (123) between the mating portions (13) to sustain the electrical card electrically connect with the corresponding mating portion (13).

Abstract: An electrical connector includes an insulative housing (1), a number of terminals (5) received in the housing, an inner shield (2), an outer shield (3), a spacer (4) and a rear shield (6). The insulative housing includes a base portion (13), a pair of parallel tongues (111,112) extending forwardly from the base portion, and a number of passageways (12) defined in respective tongues for receiving the terminals. The inner shield substantially encloses the tongues and includes a number of tabs (24, 25, 26) formed on side walls (21), a top wall (22) and a bottom wall (23) thereof, respectively. Each tab extends outwardly from the walls of the inner shield for electrically contacting with a shielding means of a mating complementary connector.