Abstract: A connector includes a first connection member and a second connection member that come in electrical contact with terminal units of a board module. The first and second connection members have connection bodies with connection terminal units formed thereon, and press members that at the time of setting the board module, cause the connection terminals of the connection bodies to deform toward the terminal units of the board module and come in contact with the terminal units when the press members comes in contact with the leading edge of the board module.

Abstract: One embodiment includes the provision of a novel insert-and-rotate connection for a daughter card, such as in a blade computer system. The daughter card has both a card edge with a plurality of card edge contacts and a mezzanine connector spaced from the card edge. An interposer mounted on the motherboard has a card edge connector and a midplane connector in communication with the card edge connector. The card edge connector includes a socket for receiving the card edge of the daughter card with the daughter card at an acute angle to the motherboard, to avoid interference between the mezzanine connector on the daughter card and a corresponding mezzanine connector on the motherboard. Once the card edge is inserted into the socket of the card edge connector, the socket allows for rotation of the daughter card about the received card edge. The mezzanine connectors are aligned for connection in response to rotation of the daughter card about the received card edge.

Abstract: A micro electromechanical system connecter includes a u-shaped plug connecter and a socket connector. The plug connecter includes two opposite substrates and a spacing element sandwiched therebetween and positioned at one ends of the two substrates. Two parallel grooves are defined in outer surfaces of the two substrates at the other ends the two substrates. A plurality of parallel first electrodes formed on the outer surfaces of the two substrates and configured to extend along a direction perpendicular to grooves. The socked connecter includes a base having a top surface. A recess is defined in the top surface. Two protrusions are respectively formed on two internal walls of the recess adjacent to the entrance of the recess. A plurality of parallel second electrodes formed on the base according to the first electrodes. Each second electrode extends from the top surface of the base to one of the two internal walls of the recess.

Abstract: A method for reducing the fitting thrust of golden finger (101,103) and a PCB (100). The method and the PCB (100) solve the problem of excessive inserting force of the golden finger (101,103) of the prior art, through modifying the shape of the edge of the PCB (100), the edge of the PCB open reeds of a connector (201, 203) at different time. The PCB (100) has at least one concave edge section or at least one convex edge section or at least one tilt edge section, and the edge can further be beveled. The bonding pads of the golden finger can be assorted, pin ends of a part of golden fingers (101, 103) can be partially removed or these golden fingers can be completely removed, the pin ends of a part of golden fingers (101,103) can be preserved. Through the method, the purpose of reducing the fitting thrust upon inserting the PCB (100) into the connector can be achieved.

Abstract: A connector assembly includes an electric connector, and a cable assembly mated with the electric connector. The electric connector includes a housing, a plurality of contacts received in the housing. The cable assemble includes a base board with a plurality of golden fingers, and a plurality of wires electrically connected to the golden fingers. The base board includes a mating portion and a connecting portion connected to the mating portion. The golden fingers are arranged on the mating portion and the wires are physically connected to the connecting portion. The mating portion is inserted into the housing of the electric connector.

Abstract: A connector is provided. The connector is for connecting an electronic card. The electronic card comprises a first card side and a second card side, a first notch formed on the first card side, and a second notch formed on the second card side. The connector comprises a body, a first fixer and a second fixer. The body comprises a first side, a second side and a slot. The first fixer is disposed on the first side, wherein the first fixer pivots between a first orientation and a second orientation, and the first fixer abuts the first notch when the first fixer is in the first orientation. The second fixer is disposed on the second side, wherein the second fixer abuts the second notch via elastic force.

Abstract: A novel charging interface for rechargeable devices is disclosed herein. The present charging interface has a male plug, formed from circuit board material, which electrically and slidably interconnects with a female socket in at least two orientations. The female socket has electrically conductive biasing means which retain the male plug within the female socket. The charging interface provides electrical contact between the master circuit board of a rechargeable device and a power source.

Abstract: The present invention relates to a semiconductor memory module and an electronic component socket for coupling with the same. A printed circuit board of the semiconductor memory module includes three signal pad arrays longitudinally formed in a row on one sides of a first surface, a second surface and a third surface thereof. Each signal pad array includes a plurality of signal pads. An electronic component socket for coupling with the printed circuit board includes thee pin arrays. Thus, an increased number of the signal pads can be provided while retaining the size of the memory module and the electronic component socket.

Abstract: A card connector adapted for receiving a card has an insulating housing having a plurality of first terminal recesses. Each of the first terminal recesses includes a fixing recess extending frontward and rearward. The fixing recess has a substantially middle portion extending towards a side to form a sliding recess. The sliding recess has a rear portion extended rearward at a lower portion thereof to form a stopping recess and a stopping portion over the stopping recess. A plurality of first connecting terminals are received in the corresponding first terminal recesses. The first connecting terminal has a first fixing portion. A substantially middle portion of one side of the first fixing portion is extended sideward and then bent upwards to form a barb-shaped intruded portion inserted into the stopping recess from the sliding recess for being stopped by the stopping portion.

Abstract: A pluggable module for mating with a receptacle connector of a host device. The pluggable module includes a housing having a front and a rear, a circuit board held by the housing that includes a mating edge and a plurality of contact pads arranged at the mating edge, and a straddle mount connector coupled to the mating edge of the circuit board. The straddle mount connector includes a plurality of contacts engaging corresponding contact pads. The contacts extend between a termination end coupled to the contact pads and a mating end configured to engage corresponding contacts of the receptacle connector. The straddle mount connector also includes a dielectric connector body having a platform for supporting the contacts. The platform includes a plurality of dividers between each of the contacts, where the dividers define a plurality of channels that receive the contacts. The dividers extend from the platform beyond the contacts such that the contacts are recessed below an outer surface of the dividers.

Abstract: An electrical connector comprises a terminal block, a terminal received in the terminal block and an elastic connecting portion electrically connecting with the terminal. The terminal block defines a first receiving cavity, a second receiving cavity opposite to the first receiving cavity and a spaced portion spacing the first receiving cavity and the second receiving cavity. The spaced portion defines a receiving channel and a inserting slot communicating with the receiving channel. The elastic connecting portion is received in the second receiving cavity and electrically connects with the terminal.

Abstract: Disclosed is an organic light emitting display, which includes a large quantity of a hydroscopic layer having a good hydroscopic ability by changing a mounting structure of the hydroscopic layer. An organic light emitting display includes a first substrate. An organic emission portion is formed at one surface of the first substrate. A second substrate is formed at a surface of the first substrate on which the organic emission portion is formed for sealing the organic emission portion from external air. A first hydroscopic layer is formed between the first and second substrates. A third substrate is formed at another surface of the first substrate for sealing the first substrate. A second hydroscopic layer is formed between the first and third substrates.

Abstract: A contact sub-assembly is provided for an electrical connector. The contact sub-assembly includes a base configured for mounting to a mating component. The base includes a pair of opposite side surfaces. A pair of separate contact support members are mounted on the base. Each contact support member holds a separate set of electrical contacts. Each contact support member includes a mounting portion engaged with a corresponding one of the side surfaces of the base such that a portion of the base extends between the mounting portions of the contact support members. The sets of electrical contacts held by the contact support members cooperate to define a mating interface for a mating connector.

Abstract: A chip card holder includes a body member, a card receiving space formed on the body member and a releasing piece. The releasing piece is slidablely mounted on the body member along a direction perpendicular to the longitudinal direction of the card receiving space and is slid to be in front of the opening of the card receiving space to lock the chip card in the card receiving space or to expose the opening of the card receiving space to unlock the chip card.

Abstract: A connector assembly includes an array of signal contacts having mating portions configured for mating engagement with corresponding signal contacts of a mating connector assembly. The assembly also includes a housing holding the array of signal contacts in rows and columns. The signal contacts are arranged along axes of the rows and columns, and the mating portions of the signal contacts are oriented at a non-orthogonal angle relative to the axes of the rows and columns.

Abstract: The invention relates to a termination (1) for telecommunication and data engineering, comprising a housing (10) which contains terminal strips for connecting up a prescribed number of pairs, wherein the housing (10) is designed to have mounting means which can be used to mount the housing (10) on supports, wherein the terminal strips are in the form of printed circuit board connectors (50), wherein the housing (10) contains a plurality of printed circuit boards (60) which are accessible from the front and at least one side portion (12) of the housing (10), wherein the printed circuit board connectors (50) are plugged onto the printed circuit boards (60) from the front of the housing (10) and are plugged onto the printed circuit boards (60) from the side portion(s) (12) of the housing (10), wherein the printed circuit boards (60) hold conductor tracks which are respectively used to connect a contact on a printed circuit board connector (50) from the front to a contact on the printed circuit board connector (5

Abstract: An electronic device, comprising an improved printed circuit board connection for connecting a first printed circuit board to a second printed circuit board in a manner that permits physical engagement at a different position than the electrical engagement, and a method for making the improved printed circuit board connection with precision in alignment. In one embodiment, the first printed circuit board includes an end portion configured to engage with a member of a connector on the second printed circuit board. The end portion and the member engage along concave portions of the end portion and convex portions of the member. When engaged, the end portion and the member align wires of the first printed circuit board with terminals of the connector.

Abstract: A pin layout of a golden finger for FPC is disclosed, which comprises: a substrate; a first conductive layer, having a plurality of first routings; a second conductive layer, having a plurality of second routings; and a plurality of conductive members; wherein the first and the second conductive layers are formed respectively on the two opposite sides of the substrate in a manner that each first routing is electrically connected to its corresponding first pin, while disposing a plurality of second pins, without contacting to the first pins and the first routings, on the side of the substrate where the first conductive layer is disposed for corresponding each of the second pins to the extensions of the plural second routings; and the plural conductive members are disposed forming electric connections between the second routings and the second pins in respective.

Abstract: A substrate fixing member that fixes a first substrate having an insertion hole into which a second substrate having mutually opposing an end portion is to be inserted, the substrate fixing member including a fixing member main body portion that covers a top surface portion of a connector having the insertion hole and has a through-hole which the substrate is to be passed through and a substrate support portion having a groove portion slidably holding an end portion of the substrate when the substrate is passed through the through-hole and the insertion hole to connect a substrate-side connection terminal to a connector-side terminal.

Abstract: The present invention provides a card edge connector. The card edge connector comprises a bar insulator base which is provided with a plurality of sockets, a group of connecting terminals arrayed in parallel, and two arm base supports arranged between both ends of the insulator base. The connecting terminals are inserted into the sockets of the insulator base to constitute a group of socket electrodes electrically connected with a circuit board. The arm base supports are respectively provided with an auxiliary supporting bracket connected with the circuit board. Each auxiliary supporting bracket is mutually sheathed, articulated and connected with one respective arm base support.

Abstract: In a board-edge connector designed for directly contacting a printed board includes a ground connection between the printed board and the connector which engages before the printed board is completely mated and connected to the voltage supply. A grounding contact is arranged in one of the corner regions within the plug-in slot of the printed board connector, wherein the grounding contact is connected to a grounding strip on the printed board on which the printed board connector is fixed. During the mating process, the printed board, onto which a grounding strip is applied on at least one of the lateral edges within the mating region, slides past the grounding contact such that an electrostatic equalization between the printed board to be newly inserted and the connector takes place before the contacting of the remaining electric contacts.

Abstract: A motherboard includes a bus, an expansion socket pair. The bus includes a number of power lines, ground lines and non-power lines. The expansion socket pair includes a first expansion socket and a second expansion socket separated from the first expansion socket. The first expansion socket includes a number of power signals pins. The second expansion socket includes a number of non-power signal pins. The power signal pins are connected to the power lines of the bus to transmit power signals. The non-power signal pins are connected to the non-power lines of the bus to transmit non-power signals.

Abstract: A connector is provided. The connector is for connecting an electronic card. The electronic card comprises a first card side and a second card side, a first notch formed on the first card side, and a second notch formed on the second card side. The connector comprises a body, a first fixer and a second fixer. The body comprises a first side, a second side and a slot. The first fixer is disposed on the first side, wherein the first fixer pivots between a first orientation and a second orientation, and the first fixer abuts the first notch when the first fixer is in the first orientation. The second fixer is disposed on the second side, wherein the second fixer abuts the second notch via elastic force.

Abstract: A component and card coupling alignment and support apparatus includes a card. A primary component connector is mounted to the card. A primary component including a connection edge engages the primary component connector. A secondary component extends from the primary component. An alignment and support member is included on the secondary component, whereby the card engages the alignment and support member on the secondary component. The engagement of the alignment and support member with the card aligns the primary component with the primary component connector during their coupling and supports the primary component in the primary component connector after their coupling. The card may then be coupled to an information handling system connector in an information handling system.

Abstract: The invention relates to an electrical contact arrangement (1) for telecommunications and data systems technology, comprising at least one electrical contact (K1) and a printed circuit board (2), the contact (K1) being connected to the printed circuit board (2) both electrically and mechanically. The contact (K1) comprises a contact region (7) on which an electrical contact for contacting the counter-contact is generated. The distance (L el) between the contact region (7) of the contact (K1, K8) and the electrical contact point (K8) for contacting the printed circuit board (2) is shorter than the distance (L mech) between the contact region (7) of the contact (K1, K8) and the mechanical contact point (9) for contacting the printed circuit board (2).

Abstract: A card edge connector and a card edge assembly that utilizes the individual card end connectors are disclosed. The card edge connectors have slotted insulation displacement terminals to connect to wires. Each electrical connector has a housing with first mounting project extends from a first sidewall of the housing and a mounting recess extends from an oppositely facing second sidewall. The mounting projection is dimensioned to be received in the mounting recess of a second electrical connector, thereby allowing the connectors to be mounted to each other. This type of connector assembly allows the connector assembly to be built according to the needs of the end user. This modular aspect of the connector assembly adds flexibility while reducing the overall cost of manufacture. In addition, the use of the slotted insulation displacement terminals further enhances the flexibility of the connector assembly, as various wiring schemes can be effectively and cost efficiently utilized.

Abstract: The present invention provides a card edge connector. The card edge connector comprises a bar insulator base which is provided with a plurality of sockets, a group of connecting terminals arrayed in parallel, and two arm base supports arranged between both ends of the insulator base. The connecting terminals are inserted into the sockets of the insulator base to constitute a group of socket electrodes electrically connected with a circuit board. The arm base supports are respectively provided with an auxiliary supporting bracket connected with the circuit board. Each auxiliary supporting bracket is mutually sheathed, articulated and connected with one respective arm base support.

Abstract: An electrical connector includes an insulating housing (1) includes a base (11) and a mating portion (13) extending forwards from the base and a set of terminals (4). Each terminal includes a retaining portion (43) retained in the base, a contacting portion (41) located on the mating portion and a connecting portion (44) extending from the retaining portion and behind a rear face of the base. The base defines a recessing portion around the retaining portions of the set of terminals at the rear face of the base to partially expose said retaining portions in an atmosphere.

Abstract: A connector adequately detects a state of an electronic component such as a memory card which is fitted in the connector by way of insertion, even when scrapes of a housing of the electronic component are produced due to insertion and removal of the electronic component which is fitted. In this connector (100), detecting parts (160A and 160B), which detect that a memory card (20) is fitted completely in an accommodating part (102) or detect whether or not data can be written in the memory card (20), have fixed terminals (162) and movable terminals (161). In the movable terminal (161), a card contacting part (163a) placed in the accommodating part (102) is pressed by the memory card (20), so that a movable contact part (164a) contacts and conducts with the fixed terminal (162).

Abstract: An insert comprises an insert body having an IC housing part, a drive plate being allowed to move up and down attached to the insert body and a latch being allowed to swing attached to the insert body and having a pressing portion formed at its lower end portion. The latch swings along with the upward/downward move of the drive plate, and the pressing portion of the latch goes out to the IC housing part when the drive plate moves upward and presses an IC device housed in the IC housing part against a sidewall portion of the IC housing part.

Abstract: A connector is provided. The connector is for connecting an electronic card. The electronic card comprises a first card side and a second card side, a first notch formed on the first card side, and a second notch formed on the second card side. The connector comprises a body, a first fixer and a second fixer. The body comprises a first side, a second side and a slot. The first fixer is disposed on the first side, wherein the first fixer pivots between a first orientation and a second orientation, and the first fixer abuts the first notch when the first fixer is in the first orientation. The second fixer is disposed on the second side, wherein the second fixer abuts the second notch via elastic force.

Abstract: An exemplary chip card holder (100) used in a portable electronic device for holding a chip card (50) is provided. The chip card holder includes a housing member (10), a holding member (20), and a driving member (30). The holding member is fixed to the housing member for receiving and holding the chip card. The driving member is movable relative to the housing member and the holding member for moving the chip card from either of a released position and a holding position to the other of the holding position and released position.

Abstract: The connector between the patient electrode pads and the base unit of an automatic external defibrillator (AED) system can be formed by capturing a printed circuit board (PCB) within a connector housing. The PCB can have conductive metal traces that serve as the contact points between the wires from the patient electrodes and the electronics within the AED base unit. The PCB in combination with the conductive metal traces can be shaped similar to a conventional two-prong or two-blade connector. Employing such a PCB-based connector may result in AED pads which are less complex and less costly to manufacture. The PCB can also support a configuration circuit that is positioned between the conductive metal traces and that allows the AED to read and store information about the attached pads. For example, the AED can use this data storage feature to check the expiration date of the pads.

Abstract: In a printed board connector (1), particularly a board-edge connector designed for directly contacting a printed board (30), it is proposed that at least a ground connection between the printed board and the connector is initially produced before the printed board is completely mated and connected to the voltage supply. To this end, a grounding contact (10) is arranged in one of the corner regions (4) within the plug-in slot (3) of the printed board connector, wherein the grounding contact (10) is connected to a grounding strip on the printed board (40), on which the printed board connector (1) is fixed. During the mating process, the printed board (30), onto which a grounding strip (33) is applied on at least one of the lateral edges (32) within the mating region (31), slides past the grounding contact (10) such that an electrostatic equalization between the printed board to be newly inserted and the connector takes place before the contacting of the remaining electric contacts.

Abstract: A printed circuit board arrangement and method includes a planar generally-rectangular vertically-arranged printed circuit board having front and rear surfaces terminating in a peripheral edge, at least one of the front and rear surfaces having a conductive printed circuit thereon. The printed circuit board has a vertical side edge portion containing a recess, and arranged adjacent the recess is a fixed contact connected with a conductor portion of the printed circuit. A relatively narrow conductor housing arranged outside the peripheral edge of the printed circuit board is mounted in the recess with a movable contact carried by the housing in electrical engagement with the fixed contact. The connector housing is supported by a rear wall mounted on the rear surface of the printed circuit board, and by a resilient clip on the connector housing that engages the printed circuit board adjacent the recess.

Abstract: A plug connector for a mobile communication device is provided. The plug connector includes a plurality of contact pins, an insulator, and an outer shell. The contact pins are provided correspondingly to contact terminals of a socket connector for the mobile communication device, and are arranged with predetermined gaps therebetween. The insulator supports the contact pins. The outer shell encloses the insulator, and includes a substrate supporter extended outwardly from the insulator to support an outer surface of a PCB (printed circuit board). The substrate supporter comprises a side supporter enclosing lateral sides of the PCB, and a ground portion bonded to put to earth to a ground circuit of a PCB. The plug connector is capable of firmly bonding with a PCB, preventing from noise occurring.

Abstract: A card connector is disclosed that includes a first housing configured to have a first card inserted thereinto to be attached thereto; a second housing configured to have a second card inserted thereinto to be attached thereto, the second housing being provided on the first housing; and multiple contact members for the second card combined with the first housing by insert molding, the contact members each having, at a first end, a contact arm part to come into contact with a terminal of the second card, and at a second end, a lead terminal part to be soldered to a pad on a board, wherein the contact arm parts are placed inside the second housing with the intermediate portions thereof fixed to part of the second housing.

Abstract: A connector is provided. The connector is for connecting an electronic card. The electronic card comprises a first card side and a second card side, a first notch formed on the first card side, and a second notch formed on the second card side. The connector comprises a body, a first fixer and a second fixer. The body comprises a first side, a second side and a slot. The first fixer is disposed on the first side, wherein the first fixer pivots between a first orientation and a second orientation, and the first fixer abuts the first notch when the first fixer is in the first orientation. The second fixer is disposed on the second side, wherein the second fixer abuts the second notch via elastic force.

Abstract: A high connector density printed circuit board, and high connector density device containing the same, including one or more of the following: a face plate; a plurality of connector ports in the face plate; a tab integral with the face plate label and bent to extend away from the face plate; information printed on the tab; the tab forming a plane at an angle of ninety degrees with respect to the face plate; the tab fabricated from a material having a combination of a thickness and a stiffness minimally able to resist a deformation resulting from a force of gravity; a second tab that is integral with the face plate and bent to extend away from the face plate; and the tabs do not infringe on an adjacent space occupied by another high connector density printed circuit board.

Abstract: In one embodiment, the present invention includes a circuit board having integrated contacts to mate with corresponding pads of a semiconductor device. At least some of the integrated contacts are of varying sizes to enable different contact resistances between the corresponding integrated contacts and pads, enabling reduced loading forces to adapt the semiconductor device to the circuit board. Other embodiments are described and claimed.

Abstract: An electrical connector comprises a terminal block, a terminal received in the terminal block and an elastic connecting portion electrically connecting with the terminal. The terminal block defines a first receiving cavity, a second receiving cavity opposite to the first receiving cavity and a spaced portion spacing the first receiving cavity and the second receiving cavity. The spaced portion defines a receiving channel and a inserting slot communicating with the receiving channel. The elastic connecting portion is received in the second receiving cavity and electrically connects with the terminal.

Abstract: A card edge connector positioning apparatus has a first retaining trough, a second retaining trough and a support member. The first retaining trough is closer to a distal end of the positioning apparatus than the second retaining trough. The support member has a first edge and a second edge at two opposite sides. The first edge is wedged in the first retaining trough to form a movement fulcrum. The second edge is held in the second retaining trough to form a gap greater than that of the first edge in the first retaining trough. Thus the second edge has a greater displacement in the second retaining trough than that of the first edge in the first retaining trough. Thereby a displacement space for installation tolerance is formed for the support member.

Abstract: A connection unit utilized in detecting an electronic device, comprising a first detection board, a second detection board and a connection board. The first detection board comprises a first contact area. The second detection board comprises a second contact area. The connection board is electrically connected to the electronic device, and comprises a first signal contact area and a second signal contact area, wherein the connection board is selectively connected to the first detection board and the second detection board. When the connection board connects the first detection board, the first signal contact area is electrically connected to the first contact area. When the connection board connects the second detection board, the second signal contact area is electrically connected to the second contact area.

Abstract: A board-connecting connector including a pair of inner housings opposed to each other for receiving elastic contact terminals with respect to a circuit board, a guiding plate having a sloped guiding part for engaging inner housing-driven projections and guiding the inner housings close to each other, and an outer housing for receiving the inner housings and the guide plate, and holding the guide plate. When the circuit board is fully inserted into the pair of inner housings, the circuit board abuts on the inner housings, and pushes to move the inner housings along the guiding plate.

Abstract: The inventive plastic card (1) is provided with electric contacts (4) and an electric circuit (3) incorporated therein and is embodied in such a way that it is foldable (6) and insertable from the fold side into the plug socket of an external reading device. The reliable application of the card contacts to the plug socket contacts, in particular of an UBS socket, is secured by the fold flexibility and the selection of a number of parallel folds.

Abstract: A connector apparatus for connecting at least two electronic component substrates, e.g., printed circuit boards or flex circuits, to one another at the edges thereof, wherein each of the at least two substrates further comprises at least one electrically conductive contact surface, and wherein the connector apparatus further includes: at least one electrically conductive transverse conducting member, wherein a first portion of the at least one transverse conducting member physically touches the contact surface on the first substrate, and wherein a second portion of the transverse conducting member physically touches the contact surface on the second substrate; and mechanical means for securing the at least one transverse conducting member to each of the substrates and to each of the contact surfaces.

Abstract: A transfer plate includes a slot and a transfer circuit. The slot has a plurality of terminals, wherein the terminals are suitable for a first memory module. One side of the transfer circuit is electrically connected to the terminals, and the other side of the transfer circuit has a plurality of connecting fingers suitable for a second memory module. The connecting fingers have a plurality of equality pins and at least a reserved pin, and the second terminals have a plurality of equality pins correspondingly electrically connected to the equality pins of the connecting fingers. When the reserved pin is electrically connected to one of a plurality of pins in a base plate, the reserved pin is used as a detecting pin for notifying the base plate that the slot is suitable for the first memory module now.

Abstract: Embodiments of the invention include an apparatus and a method for locking a cam lever, which positions a second card as inserted into a connector on a first card, and activating the second card with a coupling member. In one embodiment, the second card is inserted between a pair of guides secured to the first card into a connector on the first card. A hinged cam lever on either a guide or the second card positions the second card. A coupling member on the cam lever can be moved to lock the cam lever in place and engage a switch on the second card to activate the second card. When removal of the second card is desired, the coupling member on the cam lever can be moved to unlock the cam lever and disengage the switch on the second card to deactivate the second card.

Abstract: An electrical connector comprises an insulated housing (1) having a base (10) a plurality of conductive terminals (2) retained in the housing and a shielding member (3) assembled on the housing. The base extends along a longitudinal direction and defines a latching hole (16) recessed at one of lengthwise ends of thereof. The shielding member has a latching portion (34) extending along a mating direction of the electrical connector perpendicular to the longitudinal direction so as to be retained in said latching hole.

Abstract: An electrical interconnection system with high speed, differential electrical connectors. The connectors are formed with columns of conductive elements, some of which carry signals some of which act as ground conductors. The conductive elements may contain projections to secure the conductive elements in a housing or to facilitate desirable current flow patterns. To avoid impedance discontinuities caused by the projections, adjacent conductive elements may be formed with complementary portions to provide a relatively uniform edge-to-edge spacing between signal and ground conductors along the length of the signal conductor. To manufacture such a connector in which both the signal and the ground conductive elements contain projections, the conductive elements carrying signals may be inserted into a housing from one side and the conductive elements acting as ground conductors may be inserted from an opposite side.