Abstract: An electrical card connector (100) includes an insulative housing (10) defining a card receiving room, at least one set of terminals (30) retained in the insulative housing, and an ejector attached on the insulative housing. Each terminal has a soldering portion (303) extending out of the insulative housing and a contacting portion (301) extending towards the card receiving room. The ejector includes a slider (50), at least one spring member (90) and at least one pin member (80) cammedly pushing an inserted card. The slider includes a base portion (501) pressing against the contacting portions of the terminals and a pair of arm portions (503) extending laterally from the base portion. The base portion defines a number of passageways (502) and forms a number of protrusions (5011) extending into the corresponding passageways. The slider blocks the contacting portions from entering the card receiving room at an original position and moves to an inner position for giving way for the contacting portions.

Abstract: According to one embodiment, an electronic device includes a connector, and a flexible printed wiring board having a board main body provided with a first surface with a conductor provided thereon, a second surface opposite to the first surface, and a front end contacting the connector, and a reinforcing plate contacting the second surface at the front end to reinforce the board main body. A projection is provided on the connector in contact with the flexible wiring board. The reinforcing plate includes a recess portion in which the projection is fitted. The recess portion has a space increased in size toward and opening to an end face of the reinforcing plate corresponding to the front end, and an opening provided in the end face and communicating with the space.

Abstract: The invention relates to a connector system for the transmission of high-frequency signals, in particular on twisted-pair lines, wherein the connector system has a socket for accommodating a plug, a terminal for the connection of an at least two-conductor cable and a printed circuit board with at least two electric signal conductors for connecting the socket to the terminal, wherein at least one conductor path section with free floating potential is provided in the area of the printed circuit board, which section is coupled capacitively and/or inductively to at least two different signal conductors.

Abstract: The present invention provides a printed board connector reinforced with a circuit board, and the printed board connector includes an insulating casing, a plurality of signal modules, and a plurality of metal shielding elements. The insulating casing includes a rib. The rib extends a plurality of insulating shielding walls downwardly and the signal modules are received between the insulating shielding walls and are tightly mounted in the rib. The metal shielding elements are received between the insulating shielding walls and are tightly mounted in the rib and the signal modules. When a user presses the printed circuit connector to connect with a circuit board, the rib guides and positions the signal modules and the metal shielding elements, moreover, the rib enhances the strength of the assembling with the circuit board.

Abstract: Various embodiments are provided herein for a connector that can provide electrical and mechanical coupling between first and second objects. In one broad aspect, the connector generally comprises at least one connecting element that has at least one first and at least one second contact portions; at least one guidance portion located towards an end of a given connecting element and adjacent to the at least one first contact portion; a straight end portion comprising the at least one second contact portion, and connected to one of the first and second objects by a solder connection; and a biasing portion that is adjacent to the at least one first contact portion and the straight end portion. The biasing portion is configured to provide an electrical connection between the at least one first and the at least one second contact portions and to resiliently move the given connecting element from a first position to a second position to provide a mechanical coupling force to the first and second objects.

Abstract: A card connector adapted for receiving a SIM card includes an insulating housing having a front surface and two opposite lateral surfaces. The front surface has at least one receiving recess extending rearward. Each of the lateral surfaces has a propping portion which passes through a top surface of the insulating housing. A plurality of connecting terminals is received in the insulating housing. The metal shell coupled with the insulating housing has a covering plate and two lateral plates extending downwards from two opposite sides of the covering plate. A front edge of the covering plate has at least one first mating portion of L shape of which a bottom is received in the receiving recess. A bottom of the lateral plate curves inwards to form a resistive portion resting against the propping portion for forming a chamber for receiving the SIM card.

Abstract: The present invention discloses a novel structure for the connector of electronic cards. The invented connector comprises a mode defining the outer shape of an electronic card, a first guide arm slidably provided at one side of said mode and a second guide arm slidably provided at the other side of said mode. The connector may further comprise a triangular guide rail and/or a card ejector. The connector may be affixed to a connector main body to form a connector assembly. The method for preparing the invented connector comprises the steps of: Preparing a mode defining an electronic card; slidably affixing a first guide arm at one side of the mode; and slidably affixing a second guide arm at one side of the mode. The invented method may further comprise the step of providing an ejector and/or a triangular guide rail at one guide arm. The invented method may further comprising the step of installing the first and second guide arms in a connector main body.

Abstract: The invention relates to a plug-in connector (1) for printed circuit boards, comprising a two-part housing and a number of contact elements (10), each of the latter (10) having two connection sides. One connection side is designed as a contact for connecting leads and the other connection side is designed as a plug-in contact for a printed circuit board. In addition, the contact element (10) has an interface, which is used to connect overvoltage protection elements. According to the invention, the first housing part (2) is designed with recesses (20, 21), into which double-pole surge voltage protectors (24) are inserted, the contact element (10) has a contact surface (13) that is designed as an interface to a surge voltage protector (24) and projects into the recess (20, 21), contacting a first pole of the surge voltage protector (24). The other pole of the surge voltage protector (24) is contacted by a grounding element.

Abstract: A connector assembly includes: at least one signal contact adapted to terminate at least one conductor of a cable; at least one terminal adapted to receive the at least one signal contact; a housing including a channel configured to receive the at least one terminal and adapted to receive at least a portion of a printed circuit board; and means for biasing the at least one terminal against the circuit board, thereby pressing the at least one signal contact against the circuit board to inhibit horizontal movement of the at least one signal contact relative to the at least a portion of a printed circuit board.

Abstract: An electrical connector for electrically connecting a first electronic device to a second electronic device includes a housing that includes a plurality of solder retention channels that hold a plurality of solder segments in a vertical orientation such that at least a vertical surface and one end of each solder segment are exposed. The solder retention channels are formed in first and second opposing rows with an open space formed therebetween. The exposed vertical surfaces of the solder segments face one another.

Abstract: A connector in which contact between a circuit board and a card-type electronic device is made less liable to be unstable, even when the connector is subject to a shock. One (37) of a pair of arms (37, 38) of a base (3) is made elastically deformable. A holddown (43) is provided on the arm (37) such that the arm (37) cannot be elastically deformed when the base (3) is mounted on the circuit board.

Abstract: The present invention provides a printed board connector, and the printed board connector includes an insulating casing, a plurality of signal modules, and a plurality of metal shielding elements. The insulating casing includes a rib. The rib extends a plurality of insulating shielding walls downwardly and the signal modules are received between the insulating shielding walls and are tightly mounted in the rib. The metal shielding elements are received between the insulating shielding walls and are tightly mounted in the rib and the signal modules. When a user presses the printed circuit connector to connect with a circuit board, the rib guides and positions the signal modules and the metal shielding elements, moreover, the rib enhances the strength of the assembling with the circuit board.

Abstract: An electrical connector designed to be connected to the edge of a printed circuit card having a first face placed in contact with a support. Said connector comprises at least one metal blade designed to be in contact with an electrical track placed on a second face of the printed circuit card, and at least one securing means designed to secure the electrical connector on the edge of said card. Said at least one metal blade is designed to exert a gripping force on the printed circuit card to keep the latter in contact with the support, movement of the electrical connector and of the printed circuit card being limited in at least one direction perpendicular to the faces of the printed circuit card.

Abstract: A connector includes a housing and a contact. The contact includes a first part including a first terminal part and a first connection part; a second part including a second terminal part and a second connection part, and a third part including an elastic part having a first end and a second end connected to the first part and the second part, respectively. The first connection part and the second connection part face each other across a gap. The second terminal part is configured to come into press contact with an electrode in response to fixation of the housing to a board. The third part is configured to elastically deform in response to attachment of a plug to the housing and/or the fixation of the housing to the board, so as to cause the first connection part and the second connection part to come into contact and be electrically connected.

Abstract: A connector, shaped to receive the edge region of an automotive glazing between opposing connector arms, is described. A surface of the automotive glazing is provided with a first electrical function situated thereon. At least one connector arm carries wiring for the automotive glazing electrical function.

Abstract: Connector terminals are arranged at the center of a thin memory card 1802, thereby preventing an electrical short circuit between the terminals. A step is provided to the thin memory card 1802, thereby allowing the IC chips to be stacked in a thick portion. Adhesion portions of the connector terminals 3303 are located at a position on a card insertion port side of a substrate 3002, thereby preventing the destruction of the connector terminals at the time of the card insertion. An upper retainer lid 3003 is provided on an upper portion of the connector terminals 3303, thereby preventing the deflection of the card.

Abstract: An electrical connector for connecting a circuit board includes a plurality of blades; a plurality of terminals disposed on each of the blades and extending in parallel to each other; and a holding member for holding the blades next to each other to be situated on a same plane. Further, each of the blades includes a base member, and the terminals are integrated with the base member.

Abstract: A card connector is configured for receiving a card having contact pads with the card having a thickness and a width perpendicular to the thickness. The card connector includes a housing with a slot for receiving the card and conductive terminals within the housing and which contact the contact pads of the card. A switch includes a first contact member and a second contact member wherein the first contact member is moveable in a direction parallel to the thickness direction of the card upon insertion of the card into the housing such that the first contact member moves relative to the second contact member.

Abstract: An electrical card connector includes a first insulative housing (1), a number of first contacts (2) mounted in the first housing and having a first soldering portion (22), a second insulative housing (4) located behind the first housing, a number of second contacts (5) mounted in the second housing and having a second soldering portion (51), and a shell (6) covering the first housing and the second housing. The first housing and the second housing is separated each other. A gap (9) is formed between the shell and the second housing. The second housing with the second contacts moves around the gap, corresponding to the first housing, and then the second soldering portion is adjusted, the first soldering portion and the second soldering portion are in coplanar, and soldered on the PCB without missing.

Abstract: A card edge connector (100) includes an insulative housing (1) having a pair of side walls (10) with a central slot (11) formed therebetween, a set of terminals (5) including first terminals (51) and second terminals (52) and a spacer (3). Each side wall has a set of passageways (12). Each first terminal has a first contacting portion (511) protruding into the central slot, a first tail portion (513) mounted on a PCB, and a first connecting portion (512). The first connecting portions and the first tail portions are arranged in two rows. Each second terminal has a second contacting portion (521) protruding into the central slot, a second tail portion (523) mounted on the PCB, and a second connecting portion (522). The second connecting portions and the second tail portions are arranged in another two rows. The spacer (3) has a set of first protrusions (31) and forms a plurality of first grooves (32) located between each two adjacent first protrusions.

Abstract: A receptacle assembly for an electrical connector is provided. The assembly includes a housing, a plurality of electrical contacts and a shield. The housing includes a mating end and a mounting end that are orthogonal to each other. The mating end of the housing is elongated along a longitudinal axis of the housing. The electrical contacts are held by the housing and extend between a mating end presented at the mating end of the housing and a mounting end configured to be mounted to a circuit board. The shield has a mating interface elongated along a longitudinal axis. The shield is configured to receive the electrical connector. The housing and the contacts are located within the shield. The longitudinal axes of the housing and the mating interface are orthogonal to the circuit board.

Abstract: A card connector comprises an insulating housing having contact receiving slots. An engaging portion is formed on a side of the housing and has a first fixing position and a second fixing position. A plurality of terminals is received in the receiving slots. An ejector comprises a card ejecting plate assembled to the housing and a push bar movable disposed on the engaging portion of the housing and connected with the card ejecting plate. A fixing portion is formed on an internal side of the push bar. The push bar drives the card ejecting plate to move between a card receiving position wherein the fixing portion is located at the first fixing position and a card ejected position wherein the fixing portion is located at the second fixing position.

Abstract: The invention relates to a connector system for the transmission of high-frequency signals, in particular on twisted-pair lines, wherein the connector system has a socket for accommodating a plug, a terminal for the connection of an at least two-conductor cable and a printed circuit board with at least two electric signal conductors for connecting the socket to the terminal, wherein at least one conductor path section with free floating potential is provided in the area of the printed circuit board, which section is coupled capacitively and/or inductively to at least two different signal conductors.

Abstract: A cable assembly (100) includes an elongated insulated housing (1) having a base portion (11) and a mating portion (12) connected to the base portion. A plurality of contacts are received in the insulated housing. An elongated printed circuit board (3) has a body portion (32) and a mounting portion (31) connected to the body portion, the body portion disposed behind the base portion and electrically connected to the contacts, and the mounting portion offsetting the insulated housing along a transversal direction. A cable (6) is connected to the mounting portion of the printed circuit board. A cover encloses the base portion of the insulated housing and the body portion of the printed circuit board.

Abstract: A card connector, comprising: an insulative housing having a base, a pair of sidewalls protruding from two opposite sides of the base, a joint slot defined on an end of each sidewall, a retention block protruding from the outer surface on the other end of each sidewall; a plurality of contacts held within the base, the contacts having contact sections extending above the base; a metal retention mechanism having a pair of side arms with a planar section defined therebetween, a first opening and a second opening defined adjacently on each of side arms, the retention block held in the first opening; a metal cover including a top section, a second sidewall and a retention piece defined on each side of the top section cooperating with said second opening of the metal retention mechanism, each second sidewall defining a shaft section protruding into the joint slot, the retention piece held in the second sidewall when assembly.

Abstract: A SIM card connector includes a dielectric housing and a plurality of electric terminals. The dielectric housing has a base, a plurality of receiving grooves is opened in the base, a receiving space is formed above the base for receiving a SIM card. The electric terminal secured to the dielectric housing has a fixing portion fixed to the base of the dielectric housing, an elastic portion bending upward from the fixing portion and extending into the corresponding receiving groove, and a contacting portion continuously extending from the elastic portion and protruding into the receiving space to electrically the SIM card. A curving portion is curved downward from the contacting portion, and a connecting portion extends continuously from the curving portion and is fixed to the base.

Abstract: The invention relates to a contact element (8) for a connecting terminal (100), where the contact element (8) consists of a bent punched part, into which are integrated at least an initial clamping means (13) for fixing a plug link into position and a second clamping means (15) for fixing a connecting pin (21) into position. The invention also relates to a connecting terminal (100), particularly a circuit board connecting terminal, with at least two clamping elements (101), where the clamping elements (101) each have an insulating housing (1), with a contact element (8) of the described type positioned within said insulating housing (1). Finally, the invention relates to a plug link (13) for such a connecting terminal.

Abstract: An adapter having a housing, a ground clip and an adapter subassembly all located in the housing. The adapter subassembly includes a proximal portion that can be coupled to a coaxial connector and a distal portion that can be coupled to a printed circuit board. A central conductor in the form of an elongated shaft that runs through the subassembly and has a ball contact end for contacting a conductor located on a printed circuit board and the elongated shaft is tapered in a region near the ball contact.

Abstract: An electrical connector adapted for being electrically connected with a PCB stably, includes an insulating housing defining a plurality of terminal passageways for receiving terminals and at least one through-hole located at one side of the terminal passageways. The insulating housing has two opposite holding blocks which defines two guiding recesses facing each other for locating the PCB. A shell encircles the insulating housing and defines at least one pressing slice passing through the through-hole and pressing against one surface of the PCB. Each of the terminals has a soldering portion exposed out of the terminal passageway and pressing against the other surface of the PCB.

Abstract: A card connector, comprising: an insulative housing having a base, a first passageway and a second passageway defined adjacently in the base; a plurality of contacts held within the base, the contacts having contact sections extending beyond the base; a pair of detecting switches including a stationary switch and a movable switch respectively located in the first passageway and the second passageway communicating with each other; the movable switch including a planar section abutting against a bottom wall of the second passageway, and a slanted spring arm attached to planar section, the slanted spring arm defining a contact end; a wedge-shaped block extending into the second passageway with a wedgy surface defined thereon, the slanted spring arm constantly contacting with said wedgy surface such that there is no portion of said spring arm electrically engages with the stationary switch when said contact end is pushed by an external force.

Abstract: A connector header (10) is provided. The connector header includes an electrically insulating body (12), having an upper surface (14) and an opposed lower surface (16), separated by end walls (18) and side walls (20). At least two projections (22) are formed on said lower surface (16). At least one electrically conducting wire wrap pin (24) is fixed in said electrically insulating body (12), projects beyond said lower surface (16), and has an exposed surface (24a) adjacent said upper surface (14). The connector header also includes a solder relieving feature (26) formed with at least one of said end walls (18) or side walls (20).

Abstract: An electrical connector includes an insulative housing (1) which comprise a pair of side walls (121) and a pair of end walls (122) linking with two ends of the side wall, a plurality of terminals (2) retained in the side wall and a pair of grounding bridges (3) received in the end wall. Each of the grounding bridge comprise a contacting part (31) engaging with a mating connector, a grounding part (32) and a conducting part (33) mechanically connecting with the contacting part and grounding part. And the conductive part (33) has a larger resistance compared with the contacting part and the grounding part. Therefore, the power current transmitting through the guiding bridge (3) can be lower.

Abstract: A card connector is configured for receiving a generally rectangular card therein. The card has contact pads and generally parallel first and second sides with a cut-away portion formed in the first side in proximity to a front end of the card. The cut-away portion includes a short length extending from the front end generally parallel to the first side, and a tapered shoulder part extending from the short length to the first side. The connector includes an insulative housing with first and second spaced apart sidewalls that define a cavity therein for receiving the card in an insertion direction. A tapered surface is provided adjacent the first sidewall to guide an improperly inserted card at an angle to the insertion direction and a second sidewall recess is formed in the second sidewall to permit entrance of a corner part of such improperly inserted card.

Abstract: Various embodiments are provided herein for a connector that can provide electrical and mechanical coupling between first and second objects. In one broad aspect, the connector generally comprises at least one connecting element that has at least one first and at least one second contact portions; at least one guidance portion located towards an end of a given connecting element and adjacent to the at least one first contact portion; a straight end portion comprising the at least one second contact portion, and connected to one of the first and second objects by a solder connection; and a biasing portion that is adjacent to the at least one first contact portion and the straight end portion. The biasing portion is configured to provide an electrical connection between the at least one first and the at least one second contact portions and to resiliently move the given connecting element from a first position to a second position to provide a mechanical coupling force to the first and second objects.

Abstract: A card edge connector (100) for receiving a module (3) includes an elongated insulative housing (1) having a central slot (10) for receiving a bottom edge of the module and an arm portion (16) coupled to an end of the insulative housing. The arm portion includes a pair of side walls (160) with a retaining slot (168) formed therebetween for receiving a side edge of the module and a latch (17) located between the side walls and integrally extending upwardly from the insulative housing. The latch has a resilient arm (171) defining a retaining embossment (173) for latching the module and a gripping portion (172) for rotating the resilient arm. A number of terminals (2) are mounted on the insulative housing and extend into the central slot for electrical connection to the module.

Abstract: An electrical connector designed to be connected to the edge of a printed circuit card having a first face placed in contact with a support. Said connector comprises at least one metal blade designed to be in contact with an electrical track placed on a second face of the printed circuit card, and at least one securing means designed to secure the electrical connector on the edge of said card. Said at least one metal blade is designed to exert a gripping force on the printed circuit card to keep the latter in contact with the support, movement of the electrical connector and of the printed circuit card being limited in at least one direction perpendicular to the faces of the printed circuit card.

Abstract: A method for producing a portable electronic object having contact pads arranged on a plane with a thickness which differs from the thickness of a standard smartcard. The object is electrically connected to data transfer station connectors, by delivering a data transfer station having an electric probe connector and submitting the object to the data transfer station in such a way that the contact pads thereof are accessible to the electric probes in a direction perpendicular to the plane. Objects obtainable include UBS keys or PCMCIA cards or readers.

Abstract: An electrical connector of a computer peripheral device has an insulating base having a plurality of slots spaced along the side of the insulating base and each of the slots having a conductive terminal. Each of the conductive terminals has a first end and a second end. The first end protrudes up from the insulating base for electrically contact to a printed circuit board which is located above the insulating base within the computer peripheral device. The second end extends away from the insulating base for electrically coupling to a cable of the computer peripheral device. Therefore the electrical connector facilitates the connection between the printed circuit board and the cable of the computer peripheral device.

Abstract: A card edge connector includes a housing, a first conductive part, a second conductive part, a supporting conductive part, a connecting element, a first harness, and a second harness. The housing has an insertion hole for receiving an electronic substrate therein. The first conductive part and the second conductive part are disposed in the insertion hole and are configured to come in contact with respective terminals disposed on a surface of the electronic substrate. The supporting conductive part is disposed in the housing in such a manner that supporting conductive part is farther away from the surface of the electronic substrate than the first conductive part is. The connecting element couples the second conductive part and the supporting conductive part, the first harness is coupled with the first conductive part, and the second harness is coupled with the supporting conductive part.

Abstract: An electrical card connector (100) includes an insulating housing (30), a metal shield (10) shielding over the insulating housing for defining a card receiving space, a plurality of contacts (32) received in the insulating housing and a base (20) assembled at a side of the metal shield. The insulating housing has a body portion (31) and first and second assembling boards (301, 302) formed at two ends of the body portion. The first assembling board defines a first retaining hole (35) and the second assembling board defines a second retaining hole (37). The base includes a guiding portion (21), an extending portion (22) at a front part of the guiding portion and a protruding portion (23) bending laterally from a distal end of the extending portion. The metal shield forms a first fastening element (15) received in the first retaining hole. A second fastening element (27) is retained by the protruding portion and is received in the second retaining hole.

Abstract: An electrical card connector (100) for mounting on a printed circuit board (PCB), includes an insulating housing (10), a plurality of terminals (13) received in the insulating housing, a metal shield (12) covering the insulating housing for defining a card receiving space, a grounding piece (14) and a conductor (108) electrically connected with the grounding piece and the metal shield. The grounding piece is attached to the insulating housing and has one surface electrically connected with the PCB.

Abstract: A memory card connector includes an insulative housing and a plurality of contacts retained in the insulative housing and a pair of switch contacts. The insulative housing defines a card receiving cavity for receiving a memory card. The pair of switch contacts are of a first status when the memory card is located in a deepest insertion position of the card receiving cavity, and the pair of switch contacts are of a second status different from the first status when the memory card is located in a final working position.

Abstract: A card connector includes a first housing, a plurality of first terminals, a second housing and a plurality of second terminals. A plurality of accepting grooves are arranged in the first housing. An inserting groove is opened in the inner side of the accepting groove. The first terminals are accepted in the accepting grooves. A plurality of accepting holes are opened in the second housing. Each of the second terminals includes a welding portion and a base portion. The second terminal is arranged in the second housing. The welding portion projects out from the bottom of the second housing. The second housing is fixed on the bottom of the first housing. While the card connector is welded on a PCB, and the welding portion of the second terminal connects to the PCB, a space is formed between the card connector and the PCB.

Abstract: A midplane has a first side to which contact ends of a first differential connector are connected and a second side opposite the first side to which contact ends of a second differential connector are connected. The midplane includes a plurality of vias extending from the first side to the second side, with the vias providing first signal launches on the first side and second signal launches on the second side. The first signal launches are provided in a plurality of rows, with each row having first signal launches along a first line and first signal launches along a second line substantially parallel to the first line. The second signal launches are provided in a plurality of columns, with each column having second signal launches along a third line and second signal launches along a fourth line substantially parallel to the third line.

Abstract: An electrical connector for engaging with an electronic card has a insulative housing with a plurality of receiving spaces, a plurality of terminals respectively mounted in the receiving spaces of the insulative housing, and an operating member pivotally connected to the insulative housing. The operating member controls the terminals in the insulative housing to be moved for electrically and mechanically engagement with the electronic card. Each of the terminals has a base portion, an upper arm and a lower arm. The upper arm is connected to the base portion at a joint as a first fulcrum. The lower arm is connected to the base portion at another joint as a second fulcrum. As the operating member pivotally moves to a predetermined position, the upper arm and the lower arm respectively rotate about the first fulcrum and the second fulcrum to securely grasp the electronic card.

Abstract: A portable computer includes a main body, a keyboard assembly and an interface unit. The main body has a main circuit substrate received in the main body and a main body connector. The interface unit has a plurality of signal pads and a plurality of groups of branch pads split from an end of a line extended from each signal pad into a plurality of branches. The keyboard assembly has a plurality of keyboard signal pins connected to one of either each of the branch pads of each group or the signal pad, and a main body cable unit of which one side is provided with a cable connector connected to the main body connector, and the other side is provided with main body signal pins connected to the other of either each of the branch pads of each group or the signal pad.

Abstract: An electrical card connector (100) includes a metal shield (1), an insulated housing (2) and a terminal module (3) having a plurality of terminals (33) received therein. The metal shield covers the insulated housing to define a card receiving room and a card insertion/ejection direction. The insulated housing defines a receiving cavity (24, 25) and forms an elastic piece (26). The terminal module is slidably received in the receiving cavity of the insulated housing along the card ejection direction and is fixed in the insulated housing by the elastic piece.

Abstract: An edge connector suitable for attachment with a printed circuit board. The edge connector comprises a body composed of a plastic resin, the body defining a first end that is configured to operably attach to a portion of a printed circuit board and a second end configured to operably connect to a slot in a host device and a plurality of conductive traces and contact pads defined on a portion of a surface of the body, the traces being configured to electrically connect with corresponding traces defined on the printed circuit board.

Abstract: A shielded surface mount connector mounted to a PCB includes a housing, a plurality of terminals and a shelter enclosing the housing. The housing provides a first protruding portion and a second protruding portion. The first and second protruding portions extend downwards respectively to form a first pillar and a second pillar. The shelter provides a first shielding portion and a second shielding portion for covering the first and second protruding portions respectively. The edges of the shielding portions extend downwards respectively to form a first inserting portion and a second inserting portion. As mentioned above, by inserting the first and second pillars and the two inserting portions into the corresponding holes of a PCB, the shielded surface mount connector is mounted to the edge of the PCB, which makes the electronic products much thinner due to the present invention, and saves more space of the PCB for other designs.

Abstract: Various embodiments are provided herein for a connector that can provide electrical and mechanical coupling between first and second objects. The connector generally comprises at least one connecting element that has at least one first and second contact portion, at least one guidance portion located towards the end of the at least one connecting element and adjacent to one of the at least one first and second contact portions; and a biasing portion that is adjacent to the at least one first and second contact portions. The biasing portion is configured to provide an electrical connection between the at least one first and second contact portions and to resiliently move the at least one connecting element from a first position to a second position to provide a mechanical coupling force to the first and second objects.