Abstract: An electrical connector assembly (100) includes a frame (2) defining a central cavity (21) therein. A connector assembled to the central cavity and at least one alignment post (3) assembled to the frame (2). Each alignment post (3) defining a middle stop section (32) and an upper latching section (33) consisting of number of latching ribs (331) symmetrically arranged around a circle and a lower engaging section formed with a plurality of ribs around outer periphery; and the frame (2) defining at least one locating hole (23) for said alignment post (3) extending through. The frame (2) is sandwiched between the latching section (33) and the stop section (32) of the at least alignment post.

Abstract: A force distributor is configured for disposition between a printed circuit board and a stiffening plate, which is spaced from the printed circuit board. The force distributor is configured to distribute a compressive force between the printed circuit board, an interposer and a land grid array module carried on a side of the printed circuit board opposite the stiffening plate. The force distributor comprises a spring element comprising a first portion and a second portion with the first portion extending radially outward from the second portion. The spring element is configured for placement so that the first portion is secured to the stiffening plate and the second portion is biased in unsecured, pressing contact against the printed circuit board.

Abstract: In a connector to be connected by press contact in a connecting direction, plural contacts are coupled to a first frame having two principal surfaces opposite to each other in the connecting direction. A second frame is coupled to the first frame and guides the first frame in a specific direction perpendicular to the connecting direction. Each of the contacts includes an insulating elastic member and a conductor combined with the elastic member. The conductor includes portions protruding from the principal surfaces, respectively.

Abstract: An IC socket includes a socket body with a plurality of contacts disposed therein, a lid pivotably coupled to the socket body, a pushing member connected to the lid, and a heat sink fixed to said pushing member and being movable in a height direction relative to the lid. Because of being fixed to the pushing member, the heat sink can move with the pushing member and keep pressing on an IC chip in the case, for example, the changing of the thickness or position of the IC chip.

Abstract: An electrical connector comprises an insulation body, a plurality of terminals, and an elastic part; the insulation body is provided with the first and the second sidewalls oppositing to each other; an accommodation space being formed and enclosed in the first and second sidewalls for accommodating a chip module. Each terminal is accommodated in the insulation body and is provided with an elastic arm protruding and stretching into the accommodation space; the elastic arm is provided with a contact portion for contacting an electrically conductive slice of the chip module. The elastic part is accommodated in the insulation body and used to precisely locate the electrically conductive slice and the contact portion. Being pressed downwards, the electrically conductive slice of the chip module presses the elastic arm, and the elastic arm bends toward the second sidewall and deforms, so that the chip module moves toward the second sidewall.

Abstract: A socket connector, for electrically connecting a package and a PCB (Print Circuit Board), comprises a plurality of contacts, an insulative housing receiving the contacts, a metal stiffener, a clip and a lever. The insulative housing defines a receiving space for the package and has a location keys besides the receiving space. The location key has a cantilever arm linking with the peripheral wall and a header portion on a free end of the cantilever arm, and the cantilever arm can deflect inwardly and bring the header portion to enter and be locked in the receiving space.

Abstract: An integrated circuit may be coupled to a printed circuit board through a split socket. The integrated circuit may be packaged with a package substrate electrically coupled to a socket which, in turn, is electrically coupled to a printed circuit board. Between the printed circuit board and the package substrate, on the same side as the package substrate as the socket, may be positioned a flexible substrate. The flexible substrate may include a flexible sheet-like member made of a polymer, in one embodiment, and a plurality of microscale springs which electrically couple said flexible substrate to the package substrate.

Abstract: Provided is an electrical connector for electrically connecting a plug assembly having a plurality conductive pads to a PCB, comprising a dielectric housing including a base having a plurality of sidewalls extending therefrom; the base defining a receiving cavity for receiving the plug assembly together with said sidewalls; a plurality of spring contacts received in the base, and defining a resilient arm extending above the base, the resilient arm having a contact portion for wiping the corresponding conductive pads of the plug assembly and exerting a tangential component force, while the plug assembly is mated into the receiving cavity of the housing; wherein the base is divided into several sections, each section having a plurality of spring contacts received therein, the spring contacts received in a same section oriented in a same direction but different from those in other sections, sidewalls which is opposite to the composition of the tangential component force defining a plurality of push finger in ord

Abstract: In a pressing cap forming part of a semiconductor device carrier unit, a pressing portion of a pressure body has recesses, to each of which a bump is inserted.

Abstract: An electrical connector, for electrically connecting an IC package to a printed circuit board, includes an insulative housing and a number of terminals received in the insulative housing. The insulative housing has a base portion and four peripheral walls extending upwardly from the base portion. The insulative housing has four corners and three of the four corners have a latching portion extending inwardly from a top end of corresponding corner, respectively, and the rest one corner is formed with an indentation. The latching portion guides and resists the IC package in the insulative housing. Thus, the latching portions of the connector are molded easily.

Abstract: A socket connector that is capable of supporting and blocking a chip module therein includes an insulating body, a plurality of conductive terminals and a plate-like blocking frame. The conductive terminals are provided in the insulating body. Four sides of the plate-like blocking frame enclose to form an accommodating space. The rear portion of the plate-like blocking frame is pivotally connected to the rear portion of the insulating body. The front portion of the plate-like blocking frame is locked to the front portion of the insulating body. Two adjacent sides of the plate-like blocking frame extend respectively to form a piece body having an abutting portion. The abutting portion extends into the accommodating space, so that the chip module can be pushed in position accurately to obtain a good electrical connection with the socket connector.

Abstract: A socket connector for settling an integrated circuit module therein and connecting a sensor therewith comprises a base, a center plate mounted on the base, a plurality of contacts retained on the center plate and a retaining member. The base defines a slot for receiving the retaining member and a fastening hole for receiving the sensor, the retaining member comprises a blocking abutting against the sensor received in the fastening hole and a spring urging the blocking toward the sensor.

Abstract: A socket assembly for connecting an array of bulbous terminals such as balls wherein the female element is a miniature tube that has resilient prongs that grip the corresponding terminals with varying force during insertion and deletion. The tube is of resilient conductive material that has been sliced or helically partitioned into opposing prongs forming slots of a width that increases with axial distance from the end of the tube so as to allow the prongs of the connector to grip around the ball-like bulbous terminal and mechanically retain the terminal within the connector. The tubular element of the connector may be made by forming prongs in one or both ends of a tube by cuts of a width that increases with distance from the end of the tube.

Abstract: A land grid array socket and a microelectronic assembly including the socket. The socket comprises: a housing; an array of through-contacts on the housing; a solder ball standoff element on a PCB side of the housing; and a seating plane standoff element on a package side of the housing, the seating plane standoff element being aligned with the solder ball standoff element to form a loading force support element therewith.

Abstract: A shield connector (1) for electrically connecting an electronic component to a printed circuit board (2) comprises a housing (10) configured by a first, second, third, and fourth sidewalls (101, 102, 103, 104) defining a receiving space (105) together, a pair of contact module (30) assembled on an opposite sidewalls of the housing (10), and a pair of soldering assemblies (50) detachable to the contact module. Said soldering assembly at least has a soldering member for electrical connected to a printed circuit board and an attached portion attaching to the contact module. Consequently, present electrical connector can fit in different mobile phones to meet different requirements thereof.

Abstract: A heat transfer apparatus comprises a load frame having load springs and an open region that exposes an electronic component. The load frame is mounted to a printed circuit board on which the electronic component is mounted. A heat sink assembly is disposed on the load frame and has a main body in thermal contact with the electronic component through a thermally conductive material. The heat sink assembly has load arms for engaging the load springs. A load plate extends between the load arms and has an actuation element operative to displace the main body relative to the load plate and thereby resiliently deform the load springs and produce a load force that compresses the thermally conductive material to achieve a desired thermal interface gap between the main body and the electronic component. Non-influencing fasteners secure the heat sink to the load frame and maintain the desired thermal interface gap.

Abstract: An electrical connector assembly is provided. The electrical connector assembly includes a housing including a body fabricated at least partially from a dielectric material. The housing body has an opening therein. An electrical contact is held by the housing. The electrical contact includes an intermediate portion and a spring portion each held at least partially within the opening. The spring portion of the electrical contact is engaged by the housing body such that the spring portion is deflected into shorting engagement with the intermediate portion of the electrical contact.

Abstract: A socket connector (100) includes an insulative housing (1) and a frame (3). The housing defines a mating interface (101), a mounting interface (102) opposite to the mating interface and periphery faces between the mating interface and the mounting interface. The frame has an opening (31) therein to accommodate the housing. At least one retaining device (11) includes a stopper portion (111) and a resilient claw portion (113) unitarily formed on the periphery face of the housing. One face of the frame is supported by the stopper portion and the opposite face is abutted against by the resilient claw potion while the housing is assembled in the opening of the frame.

Abstract: An electrical connector of the present invention includes at least an wafer (10) mounting a plurality of conductive terminals (30) therein and a plurality of through holes (106) thereon and a frame member (20) receiving the at least a wafer (10). The frame member (20) defines a plurality of retaining portions (206) corresponding with the through holes (106). The retaining portions (206) are retained in the through holes (106) and each retaining portion (206) has a hollow structure (207).

Abstract: An electrical connector (1) includes a connector body (51) holding a plurality of contacts (52). The connector body includes a base section (511) with four side walls (512) surrounded thereby to form an interior cavity adapted to receive an IC package. A datum protrusion (5120) is provided on each of two adjacent side walls and configured to laterally invade the interior cavity. A chamfered surface (513) is formed along a joint between each of two adjacent side walls and the base section, and further adjacent each of the datum protrusions, thereby avoiding stress generation around the joint between each side wall and the base section.

Abstract: An electrical connector (100) includes a shielding (10) defining a receiving space and a spring plate (20) mounted in the receiving space of the shielding. The shielding comprises a bottom wall (11) for supporting the spring plate therein. The spring plate defines a main body (21), a plurality of contacting portions (22) extending slantly upward from two opposite longitudinal ends of the main body, and a locking portion (24) and a retention portion (25) extending outward from two transverse ends of the main body for engaging with a corresponding locating slot (16) and a cutout (113) of the shielding thereby the spring plate soldered by laser beam to the bottom wall of the shielding to obtain reliable connection between the shielding and the spring plate.

Abstract: An IC socket includes a socket body (10) defining a plurality of passageways (102), and terminals (20) insertable into each of the passageways. A retention projection (1020) extends into the passageway. Each terminal includes a slot at a middle portion thereof for receiving the retention projection. The slot defines a closed boundary line for restricting the retention projection such that movement of the terminal along a length axis of the passageway is limited within a predetermined distance, thereby preventing the terminal from being removed therefrom.

Abstract: An electrical connector (1) for interconnecting integrated circuits (ICs) to a circuit board, includes an insulative housing (2, 3) defining a plurality of passageways extending therethrough, and a plurality of contacts received respectively in each of the passageways of the insulative housing. The insulative housing has a first base (2) adapted to connecting an IC to a circuit board and a second base (3) which is capable of cooperating with said first base when the connector is used to connecting another IC having a different size to the circuit board.

Abstract: An electrical connector (1) includes four pieces of insulative housing segments (21) having a number of electrical contacts (3) received therein. Each insulative housing segment includes two engaging edges (213) for attaching with another adjacent two insulative housing segments, the at least one engaging edge having at least one connect portion (215) formed thereon. At least one joining member (4) connects the connect portions of the at least two insulative housing segments.

Abstract: An electrical connector that connects a chip module to a printed circuit board is proposed. The electrical connector comprises an insulator and a strengthening member disposed outside of the insulator. The strengthening member contains a sidewall for positioning the insulator and a location member bending and extending out of the sidewall. A plurality of positioning holes matching with a plurality of locking members are disposed on the location member to attach the strengthening member on the printed circuit board. The electrical connector electrically connects between the chip module and the printed circuit board without a bottom base or the lever of a LGA socket by forming a connection between the chip module, the insulator, and the printed circuit board through only the strengthening member. Due to its less complicated structure the present invention lowers production costs and increases the market competitiveness of products that utilize the device.

Abstract: An IC socket includes a plurality of terminals (7) arranged in a matrix defined by row and column directions perpendicular to each other. The terminal includes a contact arm (73) extending from a middle portion of the terminal. The contact arm includes a first resilient arm (731) extending essentially towards the row direction in a first direction, from a top view, and a second resilient arm (733) angled with the first resilient arm and extending essentially towards the row direction in a second direction, from the top view, different from the first direction. Since the second resilient arm extends essentially toward the row direction, rather than parallel to the row direction, and a larger recess is formed between respective resilient arms of adjacent terminals in a same row, there will not be apt to form a short circuit between any portions of the first lower resilient arm and the second upper resilient arm.

Abstract: An electrical connector comprises an insulative housing defining a mating interface and a mounting interface, a plurality of passageways arranged obliquely between the mating and mounting interfaces. A plurality of recesses is defined in the mating interface, and each is associated with a passageway. A plurality of contact each is assembled into a corresponding passageway. Each of the contacts includes a fall-out-preventing arrangement properly located within the recess limiting further downward movement of the contact within the passageway.

Abstract: In a land grid array connector for electrically connecting a chip module to a printed circuit board, comprising: an insulative housing and a plurality of contacts, the housing including side walls and a central portion surrounded by the side walls, the central portion having a first mounting face toward the chip module, a second mounting face toward the printed circuit board, and a plurality of grooves receiving the contacts, at least two of the side walls each including a spring arm extending into the central portion, the improvement wherein a protrusion is disposed on at least one of the spring arm and the associated side wall.

Abstract: An embodiment of the present invention is a Land Grid Array (LGA) socket. A first L-shaped area has a first center, a first outer long side, and a first outer short side. The first L-shaped area contains a first set of contacts oriented in a first direction. A second L-shaped area has a second center, a second outer long side, and a second outer short side and is located symmetrically to the first L-shaped area. The second L-shaped area contains a second set of contacts oriented in a second direction opposite to the first direction such that pressing a device on the first and second sets of contacts results in approximately zero force and moment.

Abstract: A circuit card includes a rigid portion having a first plurality of contacts configured to be in electrical communication with a plurality of memory devices. The circuit card further includes a flexible connector coupled to the rigid portion. The flexible connector has a first side and a second side. The flexible connector comprises a dielectric layer, a second plurality of contacts configured to be in electrical communication with a substrate, and a plurality of electrical conduits on the first side of the flexible connector and extending from the rigid portion to the second plurality of contacts. The plurality of electrical conduits is in electrical communication with one or more contacts of the first plurality of contacts and with the second plurality of contacts. The flexible connector further includes an electrically conductive layer on the second side of the flexible connector.

Abstract: An shielded connector (1) comprises a metal housing (10) configured by first, second, third, fourth sidewalls (102, 101, 103, 100) and a bottom wall (not labeled) defining a receiving space (104) therebetween, first and second terminal inserts securely attached to the first and third sidewalls of the metal housing respectively, first and second metal shield (40) assembled to the first and second terminal insert, and fastening means (50) extending from the metal shield, through the insulating housing and anchored to the first and third sidewalls of the metal housing, respectively. A slit (106) is formed at a portion between the sidewall and the bottom wall of the metal housing so as to improve a true perpendicularity therebetween.

Abstract: Techniques for providing electrical connections are provided. In one aspect, an electrical connecting device is provided which comprises a plurality of compressible contacts; and a downstop structure surrounding at least a portion of one or more of the contacts, limiting compression of the contacts, and being configured to limit interaction between the contacts. The electrical connecting device may be further configured to have the plurality of compressible contacts have a first coefficient of thermal expansion and the downstop structure have a second coefficient of thermal expansion, the first coefficient of thermal expansion being substantially similar to the second coefficient of thermal expansion.

Abstract: A socket connector for connecting a bulbous terminal or ball wherein the female element grips the terminal with resilient prongs with end tips at low insertion force but positive contact is maintained and wherein attempted withdrawal is normally inhibited by increasing force applied to the post by the female element in response to the withdrawal force. The female element comprises a tube of resilient conductive material that has been sliced or helically partitioned into opposing prongs of a width that decreases with axial distance from the end of the connector so as to allow the prongs of the connector to grip around the ball-like bulbous terminal and mechanically retain the terminal within the connector. The tubular element of the connector may be made by forming prongs in one or both ends of a tube by cuts of a width that increases with distance from the end of the tube.

Abstract: An electrical connector (2) comprises an insulative housing (4) and a number of metal plates (3). The insulative housing (4) has a bottom floor (45) and a number of side walls (46) extending perpendicularly from the bottom floor (45). The bottom floor (45) and the side walls (46) define a cavity (44) and an opening opposite the bottom floor (45) so that a chipset (8) could be loaded into the cavity (44) through the opening. Each of the metal plates (3) comprises a base portion (30) fixing the metal plate (3) to the insulative housing (4), a spring arm (31) extending from the base portion (30) and a pressing pad (32) connecting the spring arm (31) for flexibly abutting a side of the chipset (8).

Abstract: A connection terminal that can be brought into stable one-point contact with an electrode and that allows for a smooth connecting operation, even in the case of small contact pads or other such electrodes for establishing electrical contact. A socket contact as the connection terminal is provided to an electronic-component connector having an open portion into which a module is inserted. The socket contact comes into contact at the distal end with an electrode of the module in a direction that intersects with the connecting direction of the module when the module is inserted. The socket contact has a contact part having a contact trunk that protrudes into the opening from the proximal-end side, and a contact point provided to the distal end of the contact trunk. The concave electrode of the module slides from the proximal-end side of the contact part to the distal-end side, and the contact part narrows towards the front surface.

Abstract: A multi-chip build-up package of an optoelectronic chip mainly includes a metal carrier, an IC chip, an optoelectronic chip, a build-up packaging structure including a plurality of dielectric layers and a plurality of wiring layers, and a transparent conductive substrate. The IC chip is disposed on the metal carrier and is covered by one of the dielectric layers, and a plurality of electrodes of the IC chip is electrically connected to the wiring layers. The optoelectronic chip is partially embedded in one of the dielectric layers such that an optoelectronic working region and a plurality of electrodes of the optoelectronic chip are exposed. The transparent conductive substrate is disposed on the dielectric layers and the optoelectronic chip, and the wiring layers electrically connect the optoelectronic chip and the IC chip. Accordingly, the embedded IC chip and optoelectronic chip can be electrically interconnected together in build-up process.

Abstract: A male contact having a longitudinal axis includes a head configured to contact a corresponding electrical contact and a first portion extending along the longitudinal axis and configured to be received within a socket of a corresponding terminal assembly. The first portion comprises resilient members extending axially from the head, the resilient members defining an interior cavity within the male contact, at least one of the resilient members having an arcuate inner surface in parallel with the longitudinal axis of the corresponding male contact.

Abstract: A socket for an electrical part has a socket body, having one and another surfaces to which an electrical part and a printed circuit board are mounted, respectively, to which a contact pin is arranged so as to establish electrical conduction between the electrical part and a printed circuit board. The contact pin comprises a first contact portion contacting the printed circuit board, a first spring portion urging the first contact portion towards the printed circuit board, a second contact portion contacting a terminal of the electrical part and a second spring portion urging the second contact portion towards the terminal of the electrical part. The second spring portion is disposed between the first and second contact portions so as to constitute an electrical path between the terminal of the electrical part and the printed circuit board.

Abstract: An LGA connector (100) adapted for receiving an electronic package (10), includes a housing (2) and a number of contacts received in the housing, a stiffener (3) enclosing the housing, a cover (5) pivotable between an open position and a closed position, and a lever (4) adapted for retaining the cover. The cover includes a pair of opposite first edges (53) each having a pair of resisting beams (531) extending toward opposite directions and projecting toward the housing. The resisting beams resiliently resist against the electronic package when the cover is rotated to the closed position.

Abstract: An electrical connector (1) for connecting a land grid array (LGA) chip with a printed circuit board (PCB) includes a housing (10), and terminals (11) received in passageways (104) of the housing. The housing has a base (100) and sidewalls (12, 14), the base and the sidewalls cooperatively defining a space therebetween for retaining the LGA chip. The base has a multiplicity of walls respectively between every two adjacent passageways along a length thereof, and four raised portions (102) extending upwardly around the base. A multiplicity of protrusions (106) is respectively extended upwardly from the walls. When a force is exerted down the LGA chip to make the LGA chip engage with the terminals, the protrusions and the four raised portions can support the force for separate the force without making the LGA chip deforming downwardly. This ensures that engagement between the connector and the LGA chip is accurate and reliable.

Abstract: An LGA socket (1) includes an insulative housing (2) and a plurality of conductive contacts (3) received in the housing. The housing defines a recessed area (25) surrounded by a number of sidewalls (21). The contacts are received in the recessed area. Each of the sidewall defines a plurality of slots (27) and a plurality of corresponding shielding terminals (4) fastened in the slots. Each shielding terminal includes a fastening portion (41), a linking portion (43) extending from the fastening portion, a first contacting arm (421) extending from one end of the linking portion, and a second contacting arm (422) extending form the other end of the linking portion. The first and second contacting arms dispose out of the sots for elastically connecting with external components.

Abstract: An electrical connector (100) includes a lower shield (3), an insulative housing (1) assembled to the lower shield, a number of terminals (2) and a pair of upper shields (4). The lower shield has a bottom wall (33) and a pair of first side walls (32). Each first side wall has a pair of upper base portions (361) and a lower base portion (326) and defines a recess (325) between the upper base portions and the lower base portion. Each upper base portion has a projecting portion (363) extending outwardly therefrom through the recess for engaging with a protrusion (46) disposed on a top surface of the upper shield.

Abstract: An embodiment of the present invention is a Land Grid Array (LGA) socket. A first L-shaped area has a first center, a first outer long side, and a first outer short side. The first L-shaped area contains a first set of contacts oriented in a first direction. A second L-shaped area has a second center, a second outer long side, and a second outer short side and is located symmetrically to the first L-shaped area. The second L-shaped area contains a second set of contacts oriented in a second direction opposite to the first direction such that pressing a device on the first and second sets of contacts results in approximately zero force and moment.

Abstract: The invention discloses an electrical connector comprising an insulating housing and a plurality of terminals. The insulating housing comprises a base having at least one group of slots and at least one block portion. Each terminal is inserted into one of the slots. A first position and a second position are respectively defined according to the contact between the terminal and the slot. A base line is defined from one end of the block portion away from the base. A first distance is defined from the base line to the first position. A second distance is defined from the first position to the second position. A third distance is defined from the base line to the position where the terminal protrudes from the block portion. The first distance is larger than or equal to 1.5 times the second distance, and the third distance is smaller than the first distance.

Abstract: A socket connector for connecting a post or ball wherein the female element grips the post with resilient prongs with end tips at low insertion force but positive contact is maintained and wherein attempted withdrawal is normally inhibited by increasing force applied to the post by the female element in response to the withdrawal force. The female element comprises a tube of resilient conductive material that has been sliced or helically partitioned into opposing helical prongs so as to allow the prongs of the connector to spirally open around the post or ball-like bump and mechanically grip the post or bump as the post or bump is inserted along the longitudinal axis of the tube. The tubular element may be made by forming helical prongs in the end of a tube in helical cuts from about a mid section to one end of the tube.

Abstract: An electrical connector comprising: an insulative housing defining a top surface with a plurality contact terminals planted within the housing; a frame having an rectangle framework securely attaching to the housing defining sidewalls jointly formed a room for receiving an IC package therein, engaging hollows are defined at an pair of opposite corner of the framework and a chamber at a corner of the framework; a compliant biasing device positioned in the said chamber of the corner of framework for positioning the IC package; a thermal control element having alignment pins related to the engaging hollows, said thermal control element pushing the compliant biasing device sliding in the chamber so the compliant biasing device attaching on the IC package to ensure proper and reliable electrical interconnection.

Abstract: Disclosed is a piston reset apparatus for a multichip module that includes a base with multiple projections and two unit associating pegs extending from opposite ends of the base, a hat disposed upwardly of the base and including multiple adjustable pistons vertically adjustable within the hat, each of the plurality of adjustable pistons being disposed in alignment with one of the multiple projections, a mass equivalent plate disposed upwardly of the hat and being configured to hold a spring loaded sleeve, the spring loaded sleeve including a plurality of springs, each of the springs being aligned with and configured to apply pressure upon one of the multiple pistons, a spring loaded clamp disposed upwardly of the plate and including a spring loaded portion and a retaining portion, the retaining portion defining two cavities configured to fixedly associate with an associating groove defined by each of the unit associating pegs.

Abstract: A contact block includes a contact having a pair of contact pieces spaced apart, and an electrically insulating combining block for combining the contact pieces. Each contact piece is provided with a horizontal U-shaped or a horizontal V-shaped intermediate region having a folded end portion and a pair of arm portions vertically spaced apart from the folded end portion; a first tip region extending downward from the tip portion of one of the arm portions; and a second tip region extending upward from the tip portion of the other arm portion. The folded end portions of both contact pieces are buried within the combining block and the remaining parts of both contact pieces are projected from the combining block. Thereby, in a state of being assembled into the electrical connecting apparatus, adjoining contacts are positioned by the combining block, and contacts can be exchanged by exchanging contact blocks.

Abstract: An electrical connector (100) adapted to receive an electronic module (4) has a shield (1) with a number of resilient locking members (123). The resilient locking member (123) further has a cantilever (1232) abutting the electronic module (4). The locking member (123) holds the electrical module (4) firmly while allowing easy access to the module (4).

Abstract: An electrical connector includes a base, an upper cover, terminals and a lever. The base is formed with terminal slots and a supporting seat formed with pivoting portions. The upper cover has a main body formed with through holes for accommodating the terminals, and a rear plate connected to a rear end of the main body. The lever has a rocking portion and a pivoting shaft, which includes first shafts pivotally connected to the pivoting portions, and a second shaft engaged with the rear plate. A side edge of the rear plate is nearer to a middle of the upper cover than a side edge of the main body. The rocking portion is disposed between the side edges so that the rocking portion may be rotated with respect to the side edge of the rear plate without exceeding the side edge of the main body.