Abstract: A cable connector includes an insulator, an electrical connection portion, a cable and a latch, wherein the electrical connection portion is disposed in the insulator, and one end of the cable is electrically connected to the electrical connection portion; a front end of the insulator is provided with a projecting portion extending toward a bottom end of the insulator, the latch is disposed on the projecting portion, and a latch projection is disposed on a surface of the latch; a rear end of the insulator is provided with a first positioning post projecting toward the bottom end of the insulator; and the projecting portion and the first positioning post of the cable connector are respectively cooperated with a docking connector. The cable connector can implement forward and reverse plug of the cable connector; thereby facilitating wiring of the customer on the mainboard.

Abstract: A connector module for an electrical connector that has at least one wafer assembly with at least one conductive member and at least one contact wafer. The contact wafer includes a plurality of contacts including at least one signal contact and at least one ground contact. Each of the contacts has a board engagement end configured to engage a printed circuit board and a mating interface end opposite thereof and configured to connect with a contact of a mating connector module. A grounding gasket receives the board engagement ends of the contacts of the wafer assembly. The grounding gasket has at least one portion in electrical contact with the ground contact of the plurality of contacts. The ground contact of the contact wafer is in electrical contact with both the conductive member and the grounding gasket, thereby defining a grounding path through the connector module to the board.

Abstract: A stacked I/O connector for use with a high speed, high density transceiver that generates a large amount of heat. The connector may be formed with a web-like housing into which leadframe assemblies are inserted. The web-like housing may have openings in the front, back, top and/or sides, enabling airflow through the connector with little resistance. Sidewall openings may open into a channel between the housing and a wall of cage, enabling air flowing to cool transceivers inserted into the cage to pass through the connector assembly with low resistance and high cooling efficiency. A cage for the connector may have openings selectively positioned such that air flowing through the cage to cool transceivers mated to the I/O connector may pass through the connector with low resistance, enhancing cooling efficiency. Such a connector may be used with OSFP transceivers to meet signal integrity and thermal requirements at 112 GBps and beyond.

Abstract: A delivery system is disclosed which can be used to deliver an ocular implant into a target location within the eye via an ab interno procedure. In some embodiments, the implant can provide fluid communication between the anterior chamber and the suprachoroidal or supraciliary space while in an implanted state. The delivery system can include a proximal handle component and a distal delivery component. In addition, the proximal handle component can include an actuator to control the release of the implant from the delivery component into the target location in the eye.

Abstract: A standing-type electrical receptacle connector includes a metallic shell, an insulated housing, a plurality of first receptacle terminals, and a plurality of second receptacle terminals. The insulated housing received in the metallic shell is assembled with the first receptacle terminals and the second receptacle terminals. The first receptacle terminals and the second receptacle terminals are respectively held at two sides of the insulated housing along a width direction of the insulated housing, and the length of each of the body portions of the receptacle terminals gradually increases along the width direction of the insulated housing. The tail portions are extending out of the insulated housing and soldered on a circuit board. Accordingly, the standing-type electrical receptacle connector can be assembled to the circuit board in a standing manner.

Abstract: A press-fit connector terminal includes: a terminal body having a length sufficient to pass through an electrically conductive through-hole formed through a circuit substrate; and a contact unit arranged around the terminal body so as to surround therewith about a central axis of the terminal body, the contact unit being formed capable of expanding/contracting in a radial direction around the central axis. The contact unit has rigidity lower than that of the terminal body, the terminal body is made of material with electrical conductivity greater than that of the contact unit; and when the terminal body and the contact unit are integrally inserted into the through-hole, a gap exists between the terminal body and the contact unit so that the contact unit is movable relative to the terminal body in the radial direction within the through-hole.

Abstract: A plug for an electrical plug-type connector includes a plurality of plug contacts, which are electrically connected or connectable to a corresponding number of connecting elements, for example insulation displacement contacts, clamping contacts or possibly also soldered joints, each for connecting one electrical cable core. Per plug contact, one conductor is formed as a conductor track which is grown three-dimensionally on the surface of a plug body in the form of a cast plastics part and adheres there, and which both forms the plug contact and electrically connects the plug contact to the connecting element.

Abstract: A circuit board connector includes a contact having a mating end with a spring beam having a separable mating interface and a terminating end configured to be terminated to a wire. A housing holds the contact and includes a main body extending between a front and a rear. The housing has a mounting flange extending from the main body. The main body has a contact channel holding the contact and a wire barrel at the front configured to receive the wire. The rear of the main body is positionable on the circuit board such that the spring beam of the contact is aligned with the contact pad. A fastener is coupled to the mounting flange and is used to secure the housing to a substrate independent of the circuit board.

Abstract: An electrical connector assembled component includes a first attachment connector for attaching to a first circuit board member; a second attachment connector for attaching to a second circuit member; and an intermediate connector that is provided between the first attachment connector and the second attachment connector. The intermediate connector has conducting terminals in the housing. The first attachment connector and the second attachment connector have first receiving terminals and second receiving terminals. Each conducting terminal has a first contact section; a second contact section; and a joining section. An elastic cylindrical member is made of metal and can elastically deform in the radial direction so as to allow movement of the first contact section and the second contact section. The elastic cylindrical member contacts with the first contact section and the first receiving terminal or the second contact section and the second receiving terminal.

Abstract: A digital protective relay includes at least one daughter PCB having an electronic circuit which generates electromagnetic interference noise or high frequency noise; and a backplane printed circuit board having, on an upper surface thereof, a plurality of first connectors for connection with the daughter PCB, connected to the daughter PCB through the first connectors, and providing a noise discharge path along which the electromagnetic interference noise or the high frequency noise from the daughter PCB flows to an external ground.

Abstract: By a simple insertion operation, a connector forms electric conduction by contact, and is therefore applied to a fluorescent lamp tube, a power-saving lamp tube or a similar lamp tube. A light-emitting-diode lamp tube of the present invention includes a light module and two end caps. The connector connects the two end caps at two ends of the light module, and is composed of an insulator body, a conductive plate and a connection terminal. The insulator body includes an insertion slot, the connection terminal is disposed in the insertion slot to connect with the conductive plate, and includes two elastic terminal units. By inserting directly a conductive terminal of the end cap into the connector, and forming electric conduction by contact with each elastic terminal unit, electricity is transmitted, thereby constituting a structure that can be assembled easily, and parts thereof can be replaced and repaired by an ordinary person.

Abstract: An electronic assembly comprises a housing, a cover for the housing, a printed circuit board receivable in the housing, and a compliant pin header assembly. The compliant pin header assembly is moimtabie in the housing by inter-engaging features on the header assembly and the housing. The compliant pin header assembly has compliant pins for engaging corresponding features on the printed circuit board to connect the compliant pin header assembly electrically to the printed circuit board. The cover, when the electronic assembly is assembled, engages the housing and also engages the printed circuit board at a location spaced from an outer periphery of the printed circuit board.

Abstract: The invention relates to a connecting element for the electric connection of a solenoid valve to a circuit board, having a first electric contact element for electrically contacting the solenoid valve, a second electric contact element for electrically contacting the circuit board, and at least one tolerance adjusting element, and a related fluid assembly. According to the invention the connecting element is configured as one piece, and the first electric contact element and the second electric contact element are connected to each other via the at least one tolerance adjusting element. A first modifiable tolerance adjusting element enables a length adjustment in at least one spatial direction in order to predetermine a desired spatial positioning of the first contact element and the second contact element relative to each other.

Abstract: The invention is directed to a connector including an insulating housing with a plurality of channels accommodating at least one right-angle electro-conductive terminal leading from a mating side of the connector to a surface mount side of the connector. At least a part of channels is provided with a support surface which is adapted to pivotably support the terminal, the support surface being located at a distance above a bottom surface of these channel.

Abstract: A connector for incorporation into a heater system for inlet struts includes a body having a tapered forward end and an opposite rear end. A plurality of forward electrical terminals are formed on the outer surface of the tapered end. A plurality of rearward electrical terminals are formed on the rear end of the body. The rearward electrical terminals are in electrical connection with the forward electrical terminals. The forward electrical terminals on the tapered end are in electrical contact with a plurality of electrical contacts connected to heating elements formed in a heating mat. The heating mat entirely envelops the connector. The heater mat is formed within a substantially rigid outer shell.

Abstract: A mini display port structure is provided for receiving a connector insert. The mini display port structure includes a circuit board unit and a receptacle unit. The circuit board unit has a base board, wherein an opening is formed on one side of the base board. A portion of the receptacle unit is accommodated in the opening of the circuit board unit and is connected to the base board. Accordingly, the circuit board unit is elevated at a certain position within the height of receptacle unit, and thus the height of the receptacle unit can include the height of the circuit board unit at the same time, thereby shrinking the height of the mini display port structure after the circuit board unit is assembled for making a compact mini display port.

Abstract: A first connector 9 includes: female contact terminals 10; and a first connector housing 13 having a first connection portion 14 with first receiving holes 141 to 146 into each of which the female contact terminal is fitted, and a second connection portion 16 that is bent at a certain angle from the end of the first connection portion and has second receiving holes 161 to 166 into each of which the female contact terminal is fitted. The female contact terminal is fitted into at least either of the first connector housing's first or second receiving holes, and the contacting portion of the second contact terminal of the second connector is electrically connected to either the first or second contacting portions of the female contact terminal.

Abstract: A carrier assembly for an integrated circuit is disclosed. The carrier assembly has a retainer with electrical contacts for receiving the integrated circuit, and island defining portions arranged about the retainer. Each island defining portion is connected to neighboring island defining portions through a serpentine member. This connection allows resilient deflection between the island defining portions.

Abstract: A plug connector, for mating with a complementary connector, includes a housing comprising a mating interface defined by a pair of tongue portions and an opening defined between the tongue sections, a cover assembled with housing, an inner mold received in the cover, a printed circuit boar received in the housing and the inner mold, a plurality of cables electrically attached to corresponding electrical pads of the printed circuit board, and a fastening element securely anchored to the housing. The cover includes a first section, a second section extending along a direction different from the first section extending along, and a bending section connecting the second section to the first section. The printed circuit board includes a plurality of electrical pads formed thereon a part of which defines a mating portion parallel to the pair of tongue sections. The fastening element includes at least one column post extending through the printed circuit board.

Abstract: A printed circuit board according to the present invention is a printed circuit board (4) including a component mounting pin (1) made of a metal wire to connect with a semiconductor chip (10). The semiconductor chip (10) is a surface mounting type semiconductor chip having an electrode pad on its mounting surface for use in a flip-chip mounting system. The component mounting pin (1) is formed by using wire-bonding technology. This printed circuit board (4) is able to decrease malconnections or disconnection caused by a difference between the coefficients of thermal expansion of the semiconductor chip (10) and the printed circuit board (4).

Abstract: A method for assembling a flexible bus connector is disclosed, which includes the following steps. The first is a preparing step. An insulative housing and a plurality of terminals are provided. The insulative housing defines an opening and a plurality of passageways, and forms an upper side wall, a lower side wall, and a rear wall corresponding to the opening. The second is an assembling step. Each terminal includes at least a contact portion, a support portion and a soldering portion. The contact portion and the support portion are located near the opening when assembled, and the soldering portion extending toward the rear wall of the insulative housing. The third is a positioning step. A lower end of the soldering portion is located on a position where the lower end is lower than an inner surface of the lower side wall of the insulative housing.

Abstract: An electric connector includes: an insulating body, having holes aligned in a widthwise direction thereof at an equal pitch distance in a plurality of levels shifted in phase and spaced apart from one another in correspondence with contacts of a mating connector; a plurality of levels of contact groups, each including L-shaped contacts with tip end sides thereof being received and retained in the holes and base end sides thereof being disposed along a rear face of the body, lead portions at rear ends of the contacts being aligned in a line in the widthwise direction at a pitch distance t; and a dielectric spacer, disposed in a blank region on the rear face of the body, the blank region being defined by adjacent ones of the contacts with base end sides thereof spaced apart at a distance “n×t,” the n being an integer not smaller than two.

Abstract: A carrier assembly for an integrated circuit is described. The assembly includes a retainer for receiving the integrated circuit, and island defining portions surrounding the retainer. Each island defining portion is connected to neighboring island defining portions through a serpentine member. This arrangement allows resilient deflection between the island defining portions.

Abstract: An electrical connector assembly (100) comprises an electrical connector for electrically connecting an electronic package with a circuit substrate 6 and comprises a load plate (1) for pressing the electronic package, a locking device (2) assembled to the load plate (1) and comprises a fastener (22) assembled to the load plate (1) and a lever (21), the fastener (22) is urged to rotate to lock or open the load plate (1) by the lever (21) when the lever (21) is rotated.

Abstract: An electrical connector mountable to a circuit board is disclosed. The disclosed connector includes a shell which comprises a first plate-like portion, a second plate-like portion and connection portions. The first plate-like portion extends in a predetermined direction and is provided with fixed portions at opposite ends thereof in the predetermined direction. The fixed portion is to be fixed to the circuit board. The second plate-like portion extends in the predetermined direction. Each of the connection portions connects the first and the second plate-like portion. The second plate-like portion is provided with force resist portions at opposite ends thereof in the predetermined direction. The force resist portions are configured so that, when a force is applied to the electrical connector along a direction from the first plate-like portion towards the second plate-like portion, the force resist portions resist the force.

Abstract: A double-row angle pin connector is provided for a patch plug that has an insertion direction that is parallel to the printed circuit board. The angle pin connector comprises angle pins (8) arranged in two rows in an inner, patch plug-side row (12) as well as in an outer row (13). The angle pins (8) have printed circuit board-side soldered ends (6) and patch plug-side plugged ends (5). The angle pin connector furthermore includes a housing bottom (14) and a housing cover (15) for fixing the angle pins (8). The soldered ends (6) arranged in the patch plug-side row (12) are fixed between the housing bottom (14) and the housing cover (15) by housing support straps (17) bent during the mounting of the housing. The arrangement provides reliably operating multi-pole patch plugs, without angle plugs with a separate extrusion coating, whereby installation space and costs can thus be saved.

Abstract: An electrical interconnection device for establishing redundant contacts between the ends of two conductive elements to be mated, creating a electrical interconnection without capacitive stubs.

Abstract: A power connector comprises an insulative housing (1), a first and a second conductive terminals (3, 4) arranged in the housing, each terminal comprising a main body (31, 41), a plurality of resilient contact arms (32, 42) extending forwardly from the main body. The resilient contact arms (32, 42) of the first and the second conductive terminals respectively form an outer circle and an inner circle, and the conductive terminals (3, 4) are made of metal plate with electrical conductivity higher than 30% IACS.

Abstract: An electrical connector for electrically connecting a pin leg of a CPU with a trace of a PCB includes an insulative housing (3) and a contact (1). The contact includes a base (10) and a pair of arm sections (20) oppositely extending from lateral sides of the base for engagement with the pin leg. The base has a body section (12) for being secured in the insulative housing and a soldering section (14) for being soldered onto the PCB. Each arm section forms a heave (24) to interfere with the insulative housing because of deformation of the arm sections.

Abstract: A board mounted connector designed to have side surfaces forming a generally rectangular cross section so that a board mounted cover with a generally rectangular inner opening can easily slip over the connector housing. The connector has a housing having a bottom surface facing the circuit board, two end surfaces and two side surfaces extending upwardly from the peripheral edge of the bottom surface, the end and side surfaces forming planes which extend from the peripheral edge of the bottom surface to be perpendicular to the bottom surface. The end and side surfaces defining a peripheral wall with upper and lower portions all of which are located within the planes extending from the peripheral edge of the bottom surface.

Abstract: An electrical connector contact includes a metal strip, a shear-formed tab extending the strip to a point with a shear-formed rounded edge corners intersecting at the point to form a small double curvature contact tip.

Abstract: A first connector 9 includes: female contact terminals 10; and a first connector housing 13 having a first connection portion 14 with first receiving holes 141 to 146 into each of which the female contact terminal is fitted, and a second connection portion 16 that is bent at a certain angle from the end of the first connection portion and has second receiving holes 161 to 166 into each of which the female contact terminal is fitted. The female contact terminal is fitted into at least either of the first connector housing's first or second receiving holes, and the contacting portion of the second contact terminal of the second connector is electrically connected to either the first or second contacting portions of the female contact terminal.

Abstract: A spring contact structure (10) and an electronic device using same are provided. The spring contact structure is configured for releasing electrostatic charges of the electronic device, and includes a fixing portion (12), a clamping portion (14) and a grounding portion (16). The clamping portion is configured for electrically connecting to a substrate (30) of the electronic device, and includes a first clamp arm (142) and a second clamp arm (144) extending from opposite sides of the fixing portion. The second clamp arm is disposed over the fixing portion and the first clamp arm to clamp the substrate between the first and second clamp arms. The grounding portion extends from the fixing portion, and is configured for electrically connecting to a grounding unit (40) of the electronic device.

Abstract: A board to board connector (1) comprising an insulating housing (2) and a plurality of terminals (3) formed on said insulating housing (2), said connector (1) forms two offset mating faces (251, 252) in relative inside of the insulating housing (2), and each terminal (3) forms two elastic-ends (31, 32) protruded from said mating faces (251, 252). When assembling, the board to board connector (1) can receive two circuit boards in the first mating face (251) and the second mating face (252), because of this offset board to board connector (1) design, the two boards can be lied spreadably, so that the total height of board mounting profile will be improved.

Abstract: The connection system includes input and output modules that are edge-mounted on a photovoltaic array to conduct the photon energy created from the arrays. The system circuitry includes a diode, heat sink and connector plugs for transmitting the energy from the array. A channel on the connector fits onto the edge of the photovoltaic array to accommodate small space constraints. A predetermined number of arrays may be connected in series with the connection system.

Abstract: Provided is a carrier assembly for an integrated circuit. The assembly includes a carrier having a matrix of island contacts interconnected by respective serpentine members to allow resilient deflection between such contacts, said matrix surrounding a passage defined through the carrier. The assembly also includes a retainer for operatively locating the integrated circuit within said passage so that the integrated circuit is electrically connected to the carrier.

Abstract: A power connector comprises an insulative housing (1), a first and a second conductive terminals (3, 4) arranged in the housing, each terminal comprising a main body (31, 41), a plurality of resilient contact arms (32, 42) extending forwardly from the main body. The resilient contact arms (32, 42) of the first and the second conductive terminals respectively form an outer circle and an inner circle, and the conductive terminals (3, 4) are made of metal plate with electrical conductivity higher than 30% IACS.

Abstract: An electrical interconnection device for establishing redundant contacts between the ends of two conductive elements to be mated, creating a electrical interconnection without capacitive stubs.

Abstract: A press-fitting device in which a terminal of a connector having a staggered arrangement section of the terminal of the connector is press-fitted into an insertion hole is provided. In the press-fitting device, a first terminal restricting member on which a guide section for restricting a vertical displacement of the terminals between the terminals along the lateral direction of the connector housing and a second terminal restricting member on which a guide section for restricting the lateral displacement of the terminals between the terminals along the vertical direction of the connector housing in an upper or lower part of the first terminal restricting member are provided. A guide groove to which terminals on an interior side of the connector housing are introduced is provided at a tip end portion of the guide portion positioned at the staggered arrangement section of the terminals.

Abstract: An electrical connector assembly (100) includes an electrical connector and an auxiliary supporter (6) detachably assembled to the connector. The connector includes a housing (2) comprising a mating portion (22) defining a mating port (223) opening to a front face (221) thereof and a mounting portion (21) extending down from a rear part of the mating portion to be mounted onto a printed circuit board (PCB) (10) to support the mating portion; and a plurality of terminals (4) received in the housing. Each terminal is provided with a contact portion (41) exposed in the mating port and a solder tail (42) extending out of the housing to be soldered to the PCB. The auxiliary supporter is provided with a stand adapted for standing on the PCB and an upholding portion (65) to hold a front part of the mating portion.

Abstract: A circuit board mounted electrical connector includes a dielectric housing having a top face, a bottom board-mounting face and a front mating portion extending generally parallel to the circuit board. A set of first terminals are mounted in the housing through the top face thereof. The first terminals have tail portions for connection to appropriate circuit traces on the circuit board. The first terminals have contact portions on a top side of the mating portion of the housing for engaging appropriate contacts of a complementary mating connecting device. A set of second terminals are mounted on the housing through the bottom board-mounting face thereof. The second terminals have tail portions for connection to appropriate circuit traces on the circuit board. The second terminals have contact portions on a bottom side of the mating portion of the housing for engaging appropriate contacts on the mating connecting device.

Abstract: A combination run capacitor/positive temperature coefficient resistor/overload (CAP/PTCR/OL) module is described. The cover of the combination housing includes a capacitor compartment and terminal openings for receiving blade terminals of a run capacitor. The terminal openings in the cover align with blade receiving receptacles coupled to the PTCR start circuit. The blade terminals of a run capacitor are inserted into the receptacle openings and into electrical engagement with the blade receiving receptacles. The capacitor is supported and protected by a potting mixture filling the capacitor compartment.

Abstract: A terminal portion of a contact has a first portion extending from a one-side surface of an insulator, a second portion extending so as to be connected to a conductive portion of a board, and a third portion joining between the first and second portions. The second portion is bent using a joining portion between the second and third portions and as a fulcrum. The third portion is bent using, as a fulcrum, a joining portion between the first and third portions and in a direction away from the board toward the joining portion between the second and third portions.

Abstract: The electrical connector includes a receptacle connector 10 and a plug connector 50. The receptacle connector includes a first housing 13 made of an insulating material having plate-shaped receptacle contacts 11 made of a conductive material and formed with first through-holes 12 for accommodating the plate-shaped receptacle contacts. The plug connector includes a second housing 53 made of an insulating material having plate-shaped plug contacts 51 made of a conductive material and formed with second through-holes 52 for accommodating the plate-shaped plug contacts. At least three branched contact portions 55 to 57 and 15 to 17 are provided in staggered form on both front end portions 54 and 14 of the plug contact and the receptacle contact. With this construction, the electrical connector is superior in stability of contact between the receptacle and plug contacts.

Abstract: The present invention discloses a USB interface solid memory module, comprising: a USB data transmission interface, being an interface in the module for transmitting data to a system; a USB interface controller, being a controller for converting an interface data and accessing a digital data in a memory; a memory array, at least having a non-volatile memory for serving as a data storage device electrically coupled to a circuit corresponding to said USB interface controller; and a USB interface connector, for connecting a USB signal with the system, such that said connector being directly coupled with a USB interface slot disposed in the system, without requiring a USB signal cable.

Abstract: A connector has a small volume for facilitating utilizations in electronic apparatus. The connector includes a T-shape body, which connects with a positive-pole connecting leg and a negative-pole sleeve therein, wherein the leg and the sleeve have their tail ends to be folded. When a connecting pin inserts into the body, the power source and signal source can be securely connected at the same time for perfect conduction with dual functions.

Abstract: A card edge connector (1) includes an insulating housing (2), two rows of contacts (3) and a cover (4). The insulating housing (1) includes a front mating surface (27) and a rear face (25). A retaining section (21) extends rearwards from the rear surface and defines a dove-tailed, retaining cavity (22) on a top surface (220) thereof. A retaining, through hole (23) is defined in the insulating housing and communicating with the retaining cavity (220). The cover includes a locating block (41) retained in the dove-tailed, retaining cavity and a locking portion (42) entering the retaining, through hole. Thus, the cover is mounted to the insulating housing (2) firmly to protect soldering tails (33) and medial portions (32) of the contacts outside the insulating housing.

Abstract: A method of forming an electrical interconnection between a first electrical device and a second electrical device comprises the steps of providing contacts in an uncompressed state. The uncompressed contacts are then deformed to a compressed state and then the contacts are positioned in a device adapted to hold the contacts between the first and second electrical devices. Or alternatively, the uncompressed contacts are positioned in the device and then compressed to the compressed state. The contacts are then activated to substantially expand to the uncompressed state wherein each contact expands to substantially its uncompressed state for establishing the electrical interconnection between the first and second electrical devices.

Abstract: An interface plastic housing assembly for memory cards includes a plastic housing in shape of a planiform rectangular body, a plurality of terminals that are disposed in the plastic housing and have connection legs adhered to a circuit board of a memory card. The characteristics thereof are that a supporting arm is provided at the two sides of the plastic housing, respectively, and at the bottom surface of the supporting arms is provided with one or more protruding pillars, respectively. In accordance with the above structure, the protruding pillars at the two sides of the plastic housing are fitted into positioning holes disposed in advance at an apparatus or the circuit board, so as to ensure steady positioning between the circuit board and the plastic housing for surface adhesion thereof, thereby reducing the defective rate of the product.

Abstract: A power connector (1) includes an insulative housing (2), a first conductive contact (5) and a second conductive contact (6). The insulative housing includes a receiving space (3) defined inwardly from a front surface of the housing and an inner portion (22) bounded on its sides by the receiving space. Each contact includes a main body (51, 61) assembled in the rear wall of the housing and a plurality of mating portions (53, 63). The mating portions are assembled in the housing and partly exposed in the receiving space. The mating portions of the first conductive contact are arranged on an outer circle. The mating portions of the second conductive contact are arranged on an inner circle inside the outer circle.