Abstract: An electric motor includes an assembly for connection to a printed circuit having a conductive insert through which connection holes pass, and a coil assembly having electrical connections terminated by connection plugs. The motor further includes connection pieces comprising a rod, the outer cross-section of which matches the cross-section of the connection holes, the connection piece having, at the proximal end thereof, a shoulder with a cross-section greater than the cross-section of the connection holes, the opposite end having a slot extending up to the shoulder, and including an opening on the distal end with a width greater than or equal to the cross-section of the connection plugs and at least one narrowing with a width less than the cross-section of the connection plugs, in order to ensure the expansion of the collar of the connection piece engaged in the hole of the printed circuit insert.

Abstract: Fabrication of a reliable circuit board assembly with press-fit connectors is facilitated by identifying a press-fit-connector-to-circuit board connection of a circuit board assembly for testing, with one or more press-fit connector pins of the connector being press-fit into one or more corresponding plated through-holes of the circuit board at a first surface of the circuit board. An electrically insulative liquid is applied at a second surface of the circuit board to the corresponding plated through-hole(s) with the press-fit pin(s), where the second surface and the first surface are opposite surfaces of the circuit board. Connection of the press-fit pin(s) to the corresponding plated through-hole(s) is tested to identify a connection failure, where the electrically insulative liquid facilitates identifying the connection failure. A fabrication adjustment to the circuit board assembly can be identified and implemented to address the identified connection failure.

Abstract: A probe card device and a rectangular probe thereof are provided. The rectangular probe includes a branch segment, a first contacting segment and a second contacting segment. The branch segment is ring-shaped and has a perforation, and the branch segment includes two branch arms respectively located at two sides of the perforation. The first contacting segment is located at a side of the branch segment and is pierced through a first through hole of a first guide plate. The second contacting segment is located at the other side of the branch segment. A maximum width portion of the branch segment has a variable width greater than a hole size of the first through hole, and the two branch arms of the branch segment are compressible to enable the variable width to be less than or equal to the hole size of the first through hole.

Abstract: A LED filament bulb apparatus includes a bulb shell, one or more LED strips, a core column, two pluggable sockets, a driver board and a cap. The LED strip is electrically connected to two power lead wires. The core column supports the LED strip. The two power lead wires have bottom ends. The two pluggable sockets respectively receives the two bottom ends. The driver board is used for mounting the two pluggable socket and a driver circuit. The two bottom ends of the two power lead wires are electrically connected to the driver circuit for receiving a driving current generated by the driver circuit from converting an external power source. The cap is fixed to the core column and the bulb shell.

Abstract: A method for mounting a printed circuit board for an automotive vehicle on a carrier structure including at least one rivet. The printed circuit board includes at least one mounting aperture that is capable of accommodating the rivet and which defines an electrical conduction zone and at least one mark having a control end up to which the mark extends over the electrical conduction zone. The method includes a step of positioning the printed circuit board on the carrier structure such that the rivet extends through the mounting aperture, a step of riveting the rivet such that its head is at least partly flattened on the electrical conduction zone and a step of determining the conformity of riveting when the head of the rivet covers the control end of the mark.

Abstract: A connecting element with a screw-in element and a contact element. The screw-in element is pin-shaped and extends along a longitudinal axis, has a thread on its first free end, a drive profile and a reception on its second free end, wherein the contact element is arranged in the reception with its first free end and has a connecting pin on its second free end that extends beyond the screw-in element in the direction of the longitudinal axis, wherein the contact element has a spring that is arranged between the screw-in element and the connecting pin.

Abstract: The housing possesses a bottom wall and a periphery wall that surrounds a periphery of the bottom wall and is composed of a pair of first side walls retaining contacts with the contacts aligned in an arrangement direction, and a pair of second side walls, one of which connects one ends of the pair of first side walls, another of which connects other ends of the pair of first side walls. The mounting members possess a first mounting section covering at least part of each region, in which no contacts are aligned, of the first side walls, and a second mounting section that is separated from the first mounting section and covers at least part of the second side walls.

Abstract: An electrical contact includes a main body and a compliant pin extending from the main body. The compliant pin includes a through-hole. The compliant pin is configured to be compressed. The electrical contact also includes a first leg and a second leg that each extend from the main body. The compliant pin is between the first leg and the second leg. The compliant pin, the first leg, and the second leg extend from the main body in a same direction. The electrical contact further includes a first blade and a second blade that each extend from the main body. A slot is formed between the first blade and the second blade, and a width of the slot is larger at a first position adjacent a distal end of the first and second blades than at a second position adjacent a proximal end of the first and second blades.

Abstract: An electrical contact for insertion into a hole of a substrate. The electrical contact includes a compliant portion having an opening extending between contact arms. At least one contact arm of the contact arms has a resilient engagement section which extends into the opening of the compliant portion and resilient contacting sections which extend from the engagement section in a direction away from the opening. Upon insertion of the compliant portion into the hole of the substrate, the resilient engagement section of the at least one contact arm engages an opposed contact arm of the contact arms, causing each of the resilient contacting sections to move independently of the resilient engagement section and other resilient contacting sections. Each of the resilient engagement section and the resilient contacting sections are deformed and generate independent retention forces which are combined to generate the total retention force of the compliant portion.

Abstract: An electronic device includes a first wiring substrate having a first main surface, first conductive contacts, each of which is provided upright on the first main surface, has a U-shape opening toward a side of the first wiring substrate, and comprises a first contact part extending toward the side of the first wiring substrate, a second wiring substrate having a second main surface, second conductive contacts, each of which is provided upright on the second main surface, has a U-shape opening toward a side of the second wiring substrate, and comprises a second contact part extending toward the side of the second wiring substrate and being in contact with the first contact part, and, third conductive contacts, each of which has a U-shape opening toward the conductive contacts and is configured to sandwich the first and second contact parts and to fix the first and second wiring substrates.

Abstract: An electrical contact includes a compliant portion having an opening extending between contact arms. A first contact arm of the contact arms has multiple resilient engagement sections extending into the opening of the compliant portion and resilient contacting sections extending from the engagement sections in a direction away from the opening. Upon insertion of the compliant portion into the hole of the substrate, the resilient engagement sections of the first contact arm engage an opposed second contact arm of the contact arms, causing each of the resilient contacting sections to move independently of the resilient engagement sections and independently of other resilient contacting sections. Each of the resilient engagement sections and the resilient contacting sections are deformed and generate independent retention forces which are combined to generate the total retention force of the compliant portion.

Abstract: Circuits, methods, and apparatus that may provide audio jacks capable of providing a sufficient retention force to avoid some inadvertent extractions of an audio plug. Examples may also provide audio jacks that may be readily assembled. Other examples may provide other types of connectors. These audio jacks or other connectors may provide contact structures having one or more contacts, each having a contact support to increase contact retention force. Different materials may be used to form the contacts and the contact supports. In this way, contacts may be formed using a highly conductive material, while the contact supports may be formed of a material having good spring characteristics. While such a contact may not be able to provide an adequate retention force on its own, the use of a contact support may sufficiently increase the retention force to prevent accidental extractions of an audio plug or other connector.

Abstract: A first connector includes a first plurality of eye-of-needle (EON) pins. Each EON pin of the first plurality includes two opposing spring arms. Each EON pin of the first plurality is configured to be received within a corresponding electrical via of a printed circuit board (PCB) such that the spring arms engage walls of the corresponding electrical via at a set of contact points. A second connector includes a second plurality of EON pins. Each EON pin of the second plurality includes two opposing spring arms. Each EON pin of the second plurality is configured to be received within a same corresponding electrical via of the PCB as a corresponding EON pin of the first plurality located at a same relative connector body location such that the spring arms engage the walls of the same corresponding electrical via at a different set of contact points.

Abstract: A contact device which is adapted to be mechanically mounted and electrically connected on a printed circuit board by a fastening portion and serves for receiving an external plug element. The contact device comprises a contact portion for inserting the external plug element for forming an electrical contact, an elastic support element for movably supporting the contact portion and for providing a possibility of movement in all spatial directions, wherein the support element includes a fastening part by which the contact device is fastened on the printed circuit board, a contact part for directly supporting the contact portion and a center part for connecting the fastening part and the contact part, the fastening part and the contact part bent relative to the center part, and of movement of the contact part and center part are limited by predetermined distances from adjacent external limiting means in the fastened state.

Abstract: An electrical connector connecting a male connector and a female connector in a freely engageable and detachable manner, in which: a male tab is provided at the male connector; a housing part where the male tab is inserted is provided at the female connector; a spring state contact piece and a beat piece to sandwich the male tab are provided at the housing part; and a protrusion protruding toward the male tab inserted into the housing part is provided at least one of the contact piece and the beat piece, wherein the protrusion includes a contact part which is in contact with the male tab inserted into the housing part and a sidewall part which is provided at a periphery of the contact part, and the contact part has so-called a star-shape in a plan view.

Abstract: Provided is an apparatus for connecting between an electrode terminal of a battery module and a terminal capable of electrically connecting the electrode terminal and the terminal to each other by being press-fitted onto an outer side of the electrode terminal protruding outwardly of the battery module. The apparatus for connecting between an electrode terminal of a battery module and a terminal includes a socket terminal inserted and closely adhered onto the outer side of the electrode terminal and a socket coupled and closely adhered onto an outer side of the socket terminal and coupled to the terminal, such that the electrode terminal and the terminal are electrically connected to each other by the socket terminal and the socket.

Abstract: Connectors and methods to couple packages and dies are shown. Selected examples include plugs and receptacles having two or more terraces with contacts provided along the terraces. Examples of connectors and methods include configurations where the connector is usable with a package including a die coupled along a substrate. In selected examples a heat sink is coupled over the die, and a package includes a side access port between the heat sink and the substrate configured to receive the connector, such as one or more of a plug or receptacle through the side access port.

Abstract: A female electric connector includes a terminal body with a plurality of terminal arms. The terminal arms extend from the terminal body around a terminal axis. The female electric connector includes an over-deflection protection that limits deflection of the terminal arms in an inward direction generally toward the terminal axis.

Abstract: The invention relates to a connector device for electrically connecting a conductor to a circuit board by means of the direct insertion of the connector device into a contact hole of the circuit board. The connector device comprises a fastening region for fastening the conductor to the connector device, a transfer region for transferring a current from the conductor to the circuit board and at least three insertion elements that can be inserted into the contact hole together. Each of the insertion elements extends from a common base body of the connector device and runs separately from the other insertion elements. The insertion elements can be elastically deformed independently of one another in relation to the base body and are configured such that when the insertion elements are inserted in the contact hole, a plug connection of the connector device to the circuit board can be provided.

Abstract: A compliant pin comprises a base portion at a proximal end of the compliant pin, a tip portion at a distal end of the compliant pin, and a medial portion between the base portion and the tip portion. The medial portion includes a first arm and a second arm, and the tip portion includes first and second extensions extending from the first and second arms, respectively, the first and second extensions defining a slit therebetween.

Abstract: A pin header includes a connection pins and a pin holder. The connection pins includes one end to be connected to a first circuit board and the other end to be connected to a second circuit board which is positioned to form a given gap between the first circuit board and the second circuit board. The pin holder includes a holder body which holds centers of side faces of the plurality of connection pins, and a projection holder which includes a first projecting portion projecting from the holder body toward a side of the one end of the connection pins, and a second projecting portion projecting from the holder body toward a side of the other end of the connection pins. A projection length of the first projecting portion is equal to a projection length of the second projecting portion.

Abstract: An electrical connector includes an insulative housing having a number of walls formed with passageways thereof. An insulative cover defines a plurality of windows corresponding to the passageways. A shield frame has openings corresponding to the passageways and shield walls formed with the openings. A number of contacts are disposed in the passageways and have spring portions at upper portions. The shield frame is located between the insulative housing and the insulative cover. The spring portions of the contacts extend upwardly out of the openings and the windows.

Abstract: A contact structure and assembly and a method for manufacturing the same for a microelectronics device includes first and second electrically conductive contacts being helically shaped. A carrier element is attached to and positioned between the first and second contacts. The first and second contacts are in electrical communication with each other, and the first and second contacts are in a mirror image relationship with each other. A pair of insulating substrates each include electrically conductive members. A contact point on each of the first and second contacts is attached and electrically communicating to respective electrically conductive members such that the first and second electrically conductive contacts between the pair of insulating substrates form an electrically conductive package. A metal layer on the carrier element provides electrical conductivity through a first opening defined by the carrier element between the first and second portions of the helix shaped contact.

Abstract: A connection structure for a terminal fitting (20) includes the terminal fitting (20) with a pair of resilient deforming portions (22), a through hole (11) formed in a circuit board (10) as a connection target of the terminal fitting (20) and into which the pair of resilient deforming portions (22) are press-fitted while being resiliently displaced toward each other, and locking portions (28) which are formed by recessing outer edges (24) of the resilient deforming portions (22) and engaged with the inner peripheral surface of the through hole (11) when the resilient deforming portions (22) are press-fit in the through hole (11).

Abstract: A connector for electrically connecting a conductor to a printed circuit board by direct plugging into respective contact holes of the printed circuit board is disclosed. The connector has a fastening region, a transmission region, four first plug-in elements, which can be inserted jointly into a first contact hole, and four second plug-in elements, which can be inserted jointly into a second contact hole. The plug-in elements extend from a main body formed from a plastically bendable electrically conductive plate, which is bent such that two of the first plug-in elements are arranged opposite two other of the first plug-in elements at least partly congruently for plugging into the first contact hole, and such that two of the second plug-in elements are arranged opposite two other of the second plug-in elements at least partly congruently for plugging into the second contact hole.

Abstract: The press-fit type connector terminal includes a pin section in the form of a flat plate, and a plurality of contact sections situated continuous to a front end of the pin section. Each of the contact sections includes a contact piece in the form of a barrel or a spindle surrounding an imaginary center line, the contact piece being formed with a slit extending substantially parallel to the imaginary center line, and the connector terminal is comprised of a single bent metal plate having elasticity.

Abstract: A power supply for a television and a television including the same, the power supply including: a rectifier which rectifies input AC power; a converter which converts the rectified power into DC power through a switching control; a circuit board on which at least one of the rectifier and the converter is mounted; and an input connector which receives the AC power and is mounted on the circuit board such that a projecting height of the input connector projecting from the circuit board is substantially equal to or smaller than a projecting height of at least one of the rectifier and the converter.

Abstract: An electrical connector includes a base and an elastic terminal. The base has a recess. The elastic terminal is connected to the base and extends to the recess. The elastic terminal has a fixed end and a free end, the fixed end is connected to the base, and the free end is located at the recess and is curved. When the contact moves towards the recess, the contact is capable of pushing the contact protrusion to bend towards the bottom of the recess so that the free end leans against the bottom of the recess. The electrical connector may further include a contact protrusion connected to the elastic terminal. When the contact moves towards the recess, the contact is capable of pushing the contact protrusion to make the elastic terminal bend towards the bottom portion of the recess so that the free end leans against the bottom of the recess.

Abstract: An electrical connector includes a base an elastic terminal and an elastic terminal. The base has a recess. The elastic terminal is connected to the base and extends to the recess. When the contact moves towards the recess, the contact is capable of pushing the contact protrusion to bend towards the bottom of the recess. In addition, the electrical connector may further include a contact protrusion connected to the elastic terminal. When the contact moves towards the recess, the contact is capable of pushing the contact protrusion to make the elastic terminal bend towards the bottom portion of the recess.

Abstract: A method and structures for implementing hybrid molded solder-embedded pin contacts and connectors. An injection molded solder (IMS) mold cavity receives a Pin-In-Hole (PIH) connector pin. A lead-free solder is injection molded into the IMS mold cavity embedding and surrounding the PIH connector pin and forming a predefined molded solder shape defined by the PIH connector pin and the IMS mold cavity.

Abstract: A tip end and a base end therebetween define an opening located between a first conductive portion and a second conductive portion. The opening includes a pair of first linear portions, a pair of second linear portions, and a pair of third linear portions, which are located between the first conductive portion and the second conductive portion. The pair of first linear portions is in straight liner shapes and distant from both the tip end and the base end. The second linear portions are in straight liner shapes and located on the side of the tip end to have therebetween a distance decreasing toward the tip end. The third linear portions are in straight liner shapes and located on the side of the base end to have therebetween a distance decreasing toward the base end.

Abstract: A board connecting portion (21) of a terminal fitting (20) is inserted in a through hole (11) of a circuit board (10). Two resilient deformation portions (22) formed at the board connecting portion (21) are deformed resiliently to approach each other and are held resiliently in contact with the inner periphery of the through hole (11). Copper plating layers (25) formed on the outer surfaces of the resilient deformation portions (22) and a board-side tin plating layer (13) formed on the inner peripheral surface of the through hole (11) are alloyed to hold the board connecting portion (21) in the through hole (11).

Abstract: An eye-of-the needle (EON) pin contact is provided for being received within an electrical via that includes conductive material. The EON pin contact includes a compliant segment having two opposing spring arms and an opening defined between the spring arms. The compliant segment is configured to be received within the electrical via such that the spring arms engage the conductive material of the electrical via. A tip segment extends from the compliant segment. The tip segment is configured to be received into the electrical via before the compliant segment is received into the electrical via. The tip segment includes a broach that is configured to displace the conductive material as the tip segment is received into the electrical via to plow a path through the conductive material for reception of a corresponding one of the spring arms.

Abstract: A connection arrangement with a plug element and a circuit board with plated-through holes. The plug element has a plurality of pluggable contact elements. The plated-through holes are arranged in an arrangement corresponding to the arrangement of the contact elements of the plug element. The plated-through holes and the contact elements that can be plugged into them, are matched to one another such that the plug element is manually connectable to the circuit board by inserting the contact elements into the plated-through holes and the plug element is manually removable. The contact elements are simultaneously pluggable into their associated plated-through holes. The contact elements include two legs having a space between them, with both legs of each contact element pluggable into a respective plated-through hole.

Abstract: A press-fit connector in which the presence or absence of buckling of a press-fit pin can be confirmed by visual observation, when the press-fit pin is inserted by pressure into a through hole of a circuit board. The press-fit connector includes a press-fit section which holds a press-fit pin, and a connector section which can be installed on the press-fit section and which has a connecting pin that can be connected to the press-fit pin when the connector section is installed on the press-fit section. A penetration aperture for confirming buckling of the press-fit pin is provided in the press-fit section. The penetration aperture is formed in a circular shape surrounding the press-fit pin.

Abstract: The disclosure provides a terminal structure that includes an upper board and a lower board, which are adjacently provided and with respect to one another with a gap interposed therebetween. A conductor is formed on a rear surface side of upper board. A hole or a notch having an attached terminal is formed in lower board while penetrating through the lower board, and the terminal is electrically connected to the conductor on the upper board. The terminal includes a spring plate and a support section supporting the spring plate. The support section includes a fixing section that is fixed to lower board and a bottom plate that is positioned at a bottom surface side of lower board on a lower end side of the hole or notch. The spring plate of the terminal is formed to be connected to bottom plate and rise from bottom plate. The spring plate is extended upward from the lower end side of the hole or notch and comes into contact with conductor of upper board at an extended top position.

Abstract: A press-in contact and a press-in tool for connecting an electronic component to a printed circuit board, the press-in contact of the electronic component being pressed into a contact opening of the printed circuit board by the press-in tool. Also a method for producing a press-in contact. The press-in contact includes at least one guide region which can be received in a guide contour of the press-in tool in a position-fixing manner. The maximum length of the guide region is a multiple of the maximum width or is substantially equal to or only slightly shorter than the maximum width and/or the guide region is highly rigid in the press-in direction (z direction) and flexible in the other directions (x/y directions). The method according to the invention is characterized in that contiguous, interlinked contours of the press-in contacts, which contours are produced as a ribbon or band, are supplied to a separating station and are separated at predetermined separation points into individual press-in contacts.

Abstract: An electrical connector assembly including an electrical connector that has a connector body with mating and interior sides facing in opposite directions. The electrical connector also includes electrical contacts that are held by the connector body. The connector assembly also includes an interposer having a connector side, an opposite board side, and plated vias that extend into the interposer from at least one of the connector or board sides. The connector side engages the interior side of the electrical connector. The electrical contacts of the electrical connector are electrically coupled to corresponding vias. The connector assembly also includes board contacts that extend from the board side of the interposer and are electrically coupled to corresponding vias. The board contacts are communicatively coupled to the electrical contacts through the interposer.

Abstract: A press-fit terminal includes: through-hole contact portions provided at intermediate portions in a terminal protruding direction, both ends of the through-hole contact portions in a widthwise direction being pressed against an inner peripheral surface of a through-hole; distal end side wide portions and proximal end side wide portions provided on both sides of the through-hole contact portions in the terminal protruding direction, and protruding toward both sides in the widthwise direction so as to position a substrate on both sides of the substrate in a thickness direction; width varying portions whose width gradually reduces from the distal end side wide portions toward a distal end side in the terminal protruding direction; a longitudinal perforated hole provided to extend over these portions; and a distal end connecting portion integrally connecting the width varying portions separated by the perforated hole, at a distal end side in the terminal protruding direction.

Abstract: A connector is provided. The connector includes contact members having a main body with a top, a bottom, a front, and a rear. A base extends from the bottom of the main body. The base is configured to be surface mounted to a first circuit board. An electrical contact extends from the front of the main body. The electrical contact is configured to be through hole mounted to a second circuit board. The connector also includes a housing having a top, a bottom, a front, and a rear. The housing has slots formed therein. The contact members are secured in corresponding slots of the housing so that the bases of the contact members are held coplanar along the bottom of the housing for mounting to the first circuit board. The electrical contacts of the contact members extend from the front of the housing for mounting to the second circuit board.

Abstract: A circuit board includes a foil circuit provided on a synthetic resin plate formed by injection molding, made of a copper foil, and having a pattern different for the circuit board. Anchor pins projecting upward are provided on the resin plate and passed through pinholes made in the foil circuit. The foil circuit is positioned and secured to the resin plate. In a required portion of the resin plate, a terminal insertion hole is provided, and a receiving terminal is secured to the required portion of the terminal insertion hole and connected to the foil circuit.

Abstract: A header connector includes a housing extending along a longitudinal axis between mating and mounting ends. The housing has contact channels open between the mating and mounting ends, and the housing has air pockets provided between selected ones of the contact channels to control an impedance of socket contacts received in the contact channels. Socket contacts are loaded into the contact channels, with each socket contact including a contact body extending along a longitudinal axis between mating and mounting ends. The contact body has a box-shaped socket at the mating end that defines a reception area configured to receive a mating contact. The box-shaped socket is configured to engage four different sides of the mating contact.

Abstract: A submount for arranging electronic components on a substrate is provided. The submount comprises a head member and at least one substrate-engaging member protruding from the head member. The head member comprises at least two, from each other isolated, electrically conductive portions, where each electrically conductive portion comprises a component contact, adapted for connection of electronic components thereto, and a substrate contact on arranged on said substrate side, adapted for bringing said electrically conductive portions in contact with a circuitry comprised in said substrate. The submount of the present invention may be used to attach electronic components, such as light-emitting diodes, to a textile substrate, without the need for soldering the electronic component directly on the substrate.

Abstract: An electrical pressfit plug connector for fastening to a printed circuit board includes contacts, which on the front side and back side of the plug connector are each situated as a single or multi-row male multipoint connector, and which are configured on the front side of the plug connector as contact pins for contacting a counterplug, and are configured on the back side as pressfit pins for pressfitting into metallized bores in the printed circuit board, according to the present system, either the contact pin or the pressfit pin of at least one contact of the male multipoint connectors being situated laterally offset with respect to its associated pressfit pin and contact pin, respectively, in the longitudinal direction of the male multipoint connectors.

Abstract: A contact device enables a contact method for RIUP operations relative to a backplane. The contact device includes first and second contact portions, each including first and second spaced-apart contact arms. The first and second contact portions are located relative to each other on the backplane such that when the contact device is in a first operative condition, the respective first contact arms abut each other and define a first electrical conduction path and the second contact arms are spaced from each other.

Abstract: A battery connector is adapted for being assembled to a printed circuit board. The battery connector includes an insulating housing, two holding elements and a plurality of terminals. The insulating housing has two opposite side surfaces. The insulating housing defines a plurality of terminal cavities and receiving grooves. Two holding grooves are opened in two opposite ends of the insulating housing. Each side surface of the insulating housing protrudes sideward to form a locating piece. Each holding element has a base plate mounted to the holding groove and a holding piece projecting out of the holding groove to be inserted into the printed circuit board. The terminals are respectively received in the terminal cavities. Each terminal has two contacting portions having an interstice therebetween and facing towards the receiving groove, and a soldering portion projecting out of the terminal cavity to be inserted in the printed circuit board.

Abstract: In order to separably connect an electric conductor (16) to a printed circuit board (2), it is proposed to insert a connecting element (1) into an opening (3) in the printed circuit board (2). In this case, a sleeve-like contact region (21) of the connecting element (1) is clamped against the inner surface (4) of the opening (3) by means of a clamping pin (7).

Abstract: Disclosed is a contact element for pressing into a hole of a printed circuit board. The contact element has a rod-shaped press-fit zone having an insertion region and an adjacent deformable region. The width of the deformable region is larger than the diameter of the hole, and the width of the insertion region is smaller than the diameter of the hole. The deformable region has a front region and a rear region that both have a closed opening, the openings being separated by a crossbar extending transversally to the insertion direction of the contact element. The crossbar extends at least in one part at a pointed angle of between 5 and 85 degrees to the insertion direction, and is thus subjected to an elastic force when the limbs are pressed together, creating a steadily increasing compression force for pressing the limbs against the wall of the opening.

Abstract: An electrical connector assembly includes a circuit board having vias extending at least partially through the circuit hoard along parallel via axes. The circuit board includes electrical conductors exposed within corresponding vias that extend between a top and a bottom. The electrical connector assembly also includes an electrical connector mounted on the circuit board that includes a housing having a mounting face configured to be mounted along the circuit board, and a plurality of variable depth signal terminals held by the housing. The signal terminals each include mounting contacts extending outward from the mounting face of the housing that are received in respective vias of the circuit board. The mounting contacts extend different depths into respective vias of the circuit board to engage the corresponding electrical conductors. The mounting contacts have a mounting end arranged at substantially the same depth within the via as the bottom of the electrical conductor.

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.