Abstract: An interface adapter for an implantable medical electrical lead facilitates temporary electrical connection between an external medical device and a connector terminal of the lead. A sidewall of the adapter surrounds a receptacle of the adapter and includes a contact opening formed therethrough, to the receptacle; the sidewall further includes at least one external feature that holds a connector member of the external medical device in a tilted orientation. The tilted orientation biases a contact surface of the connector member through the contact opening and into electrical contact with an exposed connector contact of the lead connector terminal, when the terminal is inserted within the receptacle of the adapter.

Abstract: Implantable medical devices include headers having various features such as a modular design whereby the header is constructed from a series of stacked contact modules. Additional features include a feedthrough where pins exiting a housing of the implantable medical device extend into the header to make direct electrical connection to electrical contacts present within the header where those electrical contacts directly engage electrical connectors of leads inserted into the header. Other features include electrical contacts that are relatively thin conductors on the order of 0.040 inches or less and may include radial protrusions where the radial protrusions establish contact with the electrical connectors of the lead. Furthermore, electrical contacts may be mounted within the header in a floating manner so that radial movement of the electrical contact may occur during lead insertion.

Abstract: A connector assembly of a medical electrical device includes a plurality of electrical contacts, wherein at least one contact of the plurality of electrical contacts includes an electrical coupling receptacle. The electrical coupling receptacle of the at least one contact includes a first portion, which is adapted to receive a connector element of a medical electrical lead, and a second portion, in which a part of a feedthrough member extends, and to which the part of the feedthrough member is fixedly coupled.

Abstract: A structure of electrically connecting a snap electrode for medical purposes is easily attached/detached to/from various monitoring pads attached to a human body to measure electrocardiogram (ECG), electromyogram (EMG), brain wave and nervous system signals and electrically connected to medical equipment, to an electric wire using a pressing method instead of welding. The connecting structure of a snap electrode and an electric wire includes a body having a convex portion, which is formed on the top of the body and has a groove formed on the circumference thereof, in which a combining part is fitted, and the combining protrusion having a ring shape and including a predetermined number of elastic fixing pieces protruded from the inner side thereof and a pair of first pressing pieces protruded from one side thereof and combined with an electric wire. A combining protrusion of a pad is inserted into the body.

Abstract: A biomedical electrode connector for coupling with a biomedical electrode of the type including an electrode base and a male terminal projecting from the electrode base is provided.

Abstract: Jack assemblies having cylindrical contacts are provided. For example, an enclosure may provide a cavity with a longitudinal axis for receiving an electrical plug. The jack assembly may also include at least one jack contact positioned in the cavity. The jack contact may include a first end region extending about at least a portion of the axis and a contact region extending from the first end region towards the axis. The first end region may extend completely about the axis or just about a portion of the axis. The contact region may deflect and contact a first conductive region of the plug in multiple contact areas when the plug is inserted into the cavity.

Abstract: An audio connector includes an audio plug and a jack. The audio connector includes an isolating housing and a terminal partially positioned in the housing. The jack forms a receiving portion for receiving the terminal. The terminal includes a metallic flange extending out of the housing. The housing forms an isolated covering portion on the main body surrounding the metallic flange.

Abstract: An inconspicuous data storage device disguised as a communications jack secured to a wall or other relatively immobile object and linked to a computer with a breakaway data transfer cable.

Abstract: A housing for a coaxial jack including an opening for receiving the jack, the opening including a guide for preventing rotation of the jack within the opening. The housing also includes a stop to limit sliding of the jack within the opening and a flange extending from an outer surface. An outer face opposite the flange includes a ridge and a groove. A housing for coaxial jacks includes a pair of openings for receiving jacks. Each opening includes a guide to prevent rotation and a stop to limit sliding of the jack within the opening.

Abstract: A method involves detecting an inrush current that flows out of a USB port of a first electronic device when a central processing unit (CPU) of the first electronic device is not being powered. The inrush current is detected by a novel inrush current detect circuit when a second electronic device is connected to the USB port. In one example, the first electronic device is a laptop computer having a battery and a USB DC-to-DC converter. The inrush current detect circuit enables the USB DC-to-DC converter such that the USB DC-to-DC converter receives power from the battery and supplies a regulated voltage to the second electronic device through the USB port while the CPU remains unpowered (not drawing power from the battery).

Abstract: An electrical connector (100) includes an insulative housing (10) and a plurality of contacts received to the housing. The housing defines a mating face (10), a supporting face (A) facing to the mating face and a mating cavity (101) recessed from the mating face towards the supporting face and disposed therebetween. The plurality of contacts includes a central contact (4) and a first contact (2), and the central contact defines a contacting portion (42) exposed onto the supporting face and a soldering portion (43) extending out of the housing, the first contact includes at least two arc-shaped contacting arms (23) projecting into the mating cavity and disposed beside the contacting portion of the central contact. A mating connector (200) can be disconnected and dropped from the mating cavity rapidly under an abnormal force oblique and angled to a mating direction.

Abstract: Implantable medical devices include headers having various features such as a modular design whereby the header is constructed from a series of stacked contact modules. Additional features include a feedthrough where pins exiting a housing of the implantable medical device extend into the header to make direct electrical connection to electrical contacts present within the header where those electrical contacts directly engage electrical connectors of leads inserted into the header. Other features include electrical contacts that are relatively thin conductors on the order of 0.040 inches or less and may include radial protrusions where the radial protrusions establish contact with the electrical connectors of the lead. Furthermore, electrical contacts may be mounted within the header in a floating manner so that radial movement of the electrical contact may occur during lead insertion.

Abstract: The present invention relates to a plug. The plug includes a plug body, a fixing frame, and a number of elastic plates. The plug body is made of an insulating material. A number of gold fingers are disposed on the outer surface of the plug body. The fixing frame is made of a conductive material and sleeves the plug body. The elastic plates are disposed on inner sidewalls of the fixing frame and electrically connected to the fixing frame. Each elastic plate includes an apex. The present disclosure also relates to a connector assembly using the plug.

Abstract: An electronic device such as a portable music player, cellular telephone, or computer may be provided with an audio jack system that allows audio plug position measurements to be made. Sensors such as optical sensors, magnetic sensors, mechanical sensors, electrical sensors, resistive sensors, and capacitive sensors may be used in monitoring the position and movement of the audio plug relative to the audio jack. A user may rotate the audio plug to control operations such as media playback operations, menu selection operations, and other activities in the electronic device. The audio jack may include flexible structures that allow the audio plug to be tilted relative to the audio jack. Capacitive sensors or other sensors may be used to monitor audio plug tilt and axial audio plug movement. This allows the audio plug to serve as a joystick for the electronic device.

Abstract: A method (10) of forming an electrically conducting feedthrough. The method (10) comprises a first step (11) of forming an electrically conductive structure (21) comprising a sacrificial component and a non-sacrificial component. At least a portion of the non-sacrificial component can then be coated with a relatively electrically insulating material (35) prior to removal of at least a portion of the sacrificial component from the electrically conductive structure. The structure of the feedthrough provides electrical connection through the wall of a housing of an implantable component while preventing unwanted transfer of materials between the interior of the component and the surrounding environment.

Abstract: An electrical connector (100) for insertion of an electrical plug, includes an insulative housing (1) having a receiving cavity (13) to receive the electrical plug in a front-to-rear direction and a plurality of receiving slots (14) communicating with the receiving cavity, and a set of terminals (2) received in the receiving slots and including first terminals (21). Each first terminal has a vertical flat first base portion (212) retained in the insulative housing and extending along the front-to-rear direction, a first contacting portion (211) protruding into the receiving cavity to electrical contact with the electrical plug, and a first tail portion (213) to be mounted on a printed circuit board (PCB). Both the first contacting portion (211) and the first tail portion (213) simultaneously extend from one of an upper edge and lower edge of the first base portion (212).

Abstract: An electric device according to the present invention includes a main body portion of the electric device that is designed to be connected to a battery park. A connecting portion for connecting the battery pack is formed to the main body portion of the electric device. A terminal supporting plate having at least a pair of terminals and for connecting terminals of the battery pack is fixed to the connecting portion. The terminals and are arranged on a front surface side of the terminal supporting plate that is exposed from the connecting portion. An electric material component is arranged on a rear surface side of the terminal supporting plate.

Abstract: This invention is directed to systems and methods for providing a port in an electronic device housing that is electrically isolated from a conductive portion of a connector inserted in the port without the use of a nonconductive trim in the port. In some embodiments, the connector may include a non-conductive flange or ring operative to contact the housing and the portions of the housing within the port. In some embodiments, a thin layer of non-conductive material may be applied to the portions of the housing within the port to prevent conductive portions of the connector from coming into contact with the housing (e.g., and grounding the conductive portion. This invention may be of particular interest when the conductive portion that may come into contact with the housing is not used to ground the connector.

Abstract: A universal serial bus (USB) interface includes a positive differential signal pin including first and second sections, a button mounted to the USB interface, and an elastic piece. The button includes a driving rod with a distal end resisting against the second section, a receiving room is defined below the second section to receive the elastic piece, so the second section is clamped between the elastic piece and the driving rod and is electrically connected to the first section. When the button is pressed, the driving rod of the button causes the second section to deform the elastic piece, so the second section moves away from the first section. When the button is released, the elastic piece is restored to return the first section to the second section, so the first and second sections are electrically connected again.

Abstract: A hybrid connector jack assembly for use in association with an electronic device comprising an audio jack component and a coaxial connector jack component. The audio jack component is coupled to an electronic circuit and has a proximal end and a distal end, an elongated opening extends from the proximal end to the distal end. It is structurally configured to receive a male audio connector. The coaxial connector jack component positioned at the distal end of the audio jack component and accessible through the elongated opening of the audio jack component. This allows for the insertion of a coaxial cable through the audio jack component and into operative engagement with the coaxial connector jack component.

Abstract: An electrical connector is disclosed that includes an annular housing having a central aperture for receiving a connector pin and an annular contact spring disposed concentrically within the annular housing and including a plurality of circumferentially spaced apart spring arms, each spring arm having a radially inwardly extending contact pad for resiliently contacting a connector pin inserted into the central aperture of the housing.

Abstract: A electrical connector (100) includes an insulative housing (20) defining a plurality of contact slots (23) extending along a longitudinal direction, a plurality of cantilevered arms (24) extending into the contact slots, respectively, and a transversal groove (25) located in front of the cantilevered arms and communicating with the contact slots; a plurality of contacts (30) received in the contact slots, respectively, each contact having a retention portion (31), a mating portion (32) extending forwardly from the retention portion, a tail portion (33) extending backwardly from the retention portion and a connecting portion (35) connected to the mating portion, and a positioning portion (34, 34?) integrally formed with the retention portion and extending into the transversal groove.

Abstract: A connector includes a first terminal housing for housing a plurality of aligned first connecting terminals, a second terminal housing for housing a plurality of aligned second connecting terminals, and a connecting member for collectively fixing and electrically connecting the plurality of first connecting terminals and the plurality of second connecting terminals. The insulator includes a first insulating member that is one of two divided insulators formed by dividing the insulator, and a second insulating member that is another of the divided insulators. The two divided insulators overlap when the first terminal housing is fitted to the second terminal housing, thereby forming the insulator having a predetermined thickness. A fitting groove is formed on a facing surface of one of the first and second insulating members, and a convex portion fitting to the fitting groove is formed on a facing surface of the other.

Abstract: An audio jack includes an insulative housing and a number of contacts retained therein. The insulative housing defines a receiving space for receiving a corresponding plug and a number of mounting holes extending inwardly from a mounting wall thereof. Each contact has a tail portion for connecting with a circuit board. A plenty of elastomeric material is filled into the mounting holes around the contacts to make the insulative housing being sealed except the receiving space.

Abstract: The present disclosure relates to a jack assembly including a jack mount having a front side and a rear side. A jack of the assembly is adapted to be slidably mounted in a jack receiving region of the jack mount. The jack assembly also includes a plurality of cross-connect contacts, and a rear interface assembly. The rear interface assembly includes a dielectric cover piece and a plurality of rear connectors that project outward from the dielectric cover piece.

Abstract: A socket connector includes an insulating housing, at least one terminal set and a switch module. The insulating housing defines an inserting hole. The terminal set and the switch module are respectively received in the insulating housing. The switch module includes a fixed terminal, a movable terminal and an insulating guider. The insulating guider is connected to the moveable terminal and electronically insulated from the moveable terminal for preventing signal transmitted by the socket connector from influence. Because the movable terminal is molded with the insulating guider, the strength of the switch module of the audio socket connector will be improved. Since, the audio socket connector has strong structure and high reliability.

Abstract: This invention is directed to systems and methods for providing a port in an electronic device housing that is electrically isolated from a conductive portion of a connector inserted in the port. In some embodiments, the connector may include a non-conductive flange or ring operative to contact the housing and the portions of the housing within the port. In some embodiments, a thin layer of non-conductive material may be applied to the portions of the housing within the port to prevent conductive portions of the connector from coming into contact with the housing (e.g., and grounding the conductive portion). This invention may be of particular interest when the conductive portion that may come into contact with the housing is not used to ground the connector.

Abstract: A plug assembly includes a sleeve and a connector assembly. The sleeve includes a first axial end portion and a second axial end portion. The second axial end portion defines a plurality of channels. The connector assembly is engaged to the second axial end portion of the sleeve. The connector assembly includes a connector body, a plurality of contacts and a plug. The plurality of contacts is disposed in the connector body. Each of the plurality of contacts includes a first end and a second end. The first ends of the plurality of channels are disposed in the plurality of channels of the sleeve. The plug is engaged to the connector body. The plug includes a plurality of grooves through which the second ends of the plurality of contacts are accessible.

Abstract: A phone plug connector device having a preassembled phone plug and connector, wherein the phone plug includes a conductive tip and a stem, wherein the connector connects the phone plug to a coaxial cable, wherein the coaxial cable comprises a center conductor surrounded by a first dielectric, the first dielectric being surrounded by a first conductive sheath, and the first conductive sheath surrounded by a protective outer jacket, wherein the connector connects the coaxial cable to the phone plug mechanically and electrically by compression.

Abstract: An audio jack connector (100) includes an insulative housing (1), a plurality of contacts (2) and a cover (3). the insulative housing has a bottom surface (12), a cavity (14) having a front end exposed to exterior for insertion of an electrical plug, and a plurality of receiving slots (15) recessed upwardly from the bottom surface and communicating with the cavity. The contacts are inserted into the receiving slots from the bottom surface of the insulative housing. the contacts have contacting portions (28, 29) protruding into the cavity for contacting with the electrical plug and soldering tail portions (27) extending outwardly beyond the bottom surface. The cover (3) envelopes the contacts into the receiving slots (15) with the tail portions (27) extending outwardly therefrom to make the audio jack connector communicate with the exterior via only the front end of the cavity.

Abstract: A method (10) of forming an electrically conducting feedthrough. The method (10) comprises a first step (11) of forming an electrically conductive structure (21) comprising a sacrificial component and a non-sacrificial component. At least a portion of the non-sacrificial component can then be coated with a relatively electrically insulating material (35) prior to removal of at least a portion of the sacrificial component from the electrically conductive structure. The structure of the feedthrough provides electrical connection through the wall of a housing of an implantable component while preventing unwanted transfer of materials between the interior of the component and the surrounding environment.

Abstract: Disclosed is an earphone jack including a housing, a circuit connector mounted in the housing, and a plurality of first connecting terminals each including a first connecting section outwardly protruded from the housing, to be connected to a circuit of an audio appliance, and a second connecting section extending from the first connecting section while being bent to have a C shape such that the second connecting section elastically fits around an associated one of the connecting terminals of the earphone plug. It is possible to elastically support the earphone plug even after the earphone plug is repeatedly inserted into and separated from the housing, because the first connecting terminals have a structure bent to have a circular shape.

Abstract: An electrical receptacle is provided and includes an insulative housing defining a first receiving space and a second space in communication with the first receiving space and a plurality of contacts comprising audio contacts, power contacts and at least one grounding contact. The audio contacts and the at least one grounding contact are received in the first receiving space and establish a path for transmitting audio signals, while the power contacts are received in the second receiving space and corporate with the at least one grounding contact to establish a path for power supply.

Abstract: An audio jack connector for mating with an audio plug connector has an insulating housing. The insulating housing defines an inserting hole extended from the front to the rear for receiving the audio plug connector and a recess communicating with the inserting hole at a rear end thereof. A terminal received in the recess has a base plate. Two opposite sides of the base plate extend downwards to form two fixing wings. Two facing contacting arms extend frontward from two front edges of the two fixing wings. Free ends of the contacting arms arch towards each other to form two smooth V-shaped contacting portions protruded into the inserting hole. Each of the contacting portions has two spaced smooth ribs protruded from an inner surface thereof and spreading towards two ends of the contacting portion from a peak of the contacting portion to form a smooth V-shape.

Abstract: Provided is an audio jack, including an insulating housing, a plurality of contacts, a waterproof covering body and a retaining shell. The insulating housing disposes an inserting hole and a plurality of contact-receiving grooves. The contacts are separately inserted into the contact-receiving grooves. The waterproof covering body encompasses the insulating housing and is made of elastic material. The waterproof covering body disposes a ring-shaped protruding edge extending out of an end surface of the insulating housing. The retaining shell is mounted on the outside of the waterproof covering body and disposes a plurality of hook portions. The audio jack of the present invention can make the hook portions tightly hook the circuit board and make the protruding edge be tightly pressed on one surface of the circuit board, so that no gap exists between the audio jack and the circuit board and the waterproof function can be obtained.

Abstract: Provided is an audio jack connector, including an insulating housing and a plurality of contacts. The insulating housing disposes a plurality of contact-receiving grooves including a third contact-receiving groove and a switching contact-receiving groove. The third contact-receiving groove comprises a locking groove and a third accepting groove. The contacts includes a third signal contact having a latch portion, a spring arm being bent inward from a lower end of the latch portion and then tiltedly extending forward, and a third contacting portion tiltedly extending upward from a tail end of the spring arm. The latch portion is retained in the locking groove, and the spring arm and the contacting portion is received in the third accepting groove. The audio jack connector of the present invention can obtain better mechanical properties by the deflection design of the spring arm of the third signal contact.

Abstract: An audio jack connector adapted for receiving a plug has a base which has a socket, a first terminal groove and a second terminal groove opened at a same side of the socket. The second terminal groove is located between the socket and the first terminal groove and connects with the socket through a first connecting passage. A stationary switch terminal has a first fixing slice fastened in the first terminal groove and a first contacting end projected in the first connecting passage. A resilient switch terminal has a second fixing slice fastened in the second terminal groove, a second contacting end contacting the first contacting end and projected into the socket through the first connecting passage and an opening opened in the second fixing slice for receiving the second contacting end when the second contacting end is biased by the plug to be disconnected from the first contacting end.

Abstract: An audio jack connector adapted for receiving an audio plug connector with a tip end includes an insulating housing and a contact terminal. The insulating housing defines a plug insertion hole from a front end to a rear end thereof and a recess communicating with the plug insertion hole. The contact terminal has a connecting portion received in a rear of the recess. Two opposite ends of the connecting portion are extended downward to form first and second holding arms. Portions of the holding arms extend along the axis of the plug insertion hole to form first and second locating boards. Edges of the locating boards extend towards each other and are bent along the axis of the plug insertion hole to form first and second elastic arms. First and second contact portions are protruded into the plug insertion hole from free ends of the elastic arms.

Abstract: An audio jack connector for mating with an audio plug connector has an insulating housing. The insulating housing defines an inserting hole extended from the front to the rear for receiving the audio plug connector and a recess communicating with the inserting hole at a rear end thereof. A terminal received in the recess has a base plate. Two opposite sides of the base plate extend downwards to form two fixing wings. Two facing contacting arms extend frontward from two front edges of the two fixing wings. Free ends of the contacting arms arch towards each other to form two smooth V-shaped contacting portions protruded into the inserting hole. Each of the contacting portions has two spaced smooth ribs protruded from an inner surface thereof and spreading towards two ends of the contacting portion from a peak of the contacting portion to form a smooth V-shape.

Abstract: An audio jack can allow electrical connections between an audio plug and an electronic device. The audio jack can include a series of pogo pins operative to extend into an audio jack cavity to provide conductive contacts for an audio plug placed within the audio jack. When an audio plug is inserted in the audio jack, the deflectable tips of each pogo pin can deflect and contact audio plug contact portions or regions. The end of the pogo pins opposite the deflectable tips can be coupled to an appropriate electronic device component, such as a printed circuit board, flex circuit, cable, or any other suitable component to provide a conductive path for signals between the audio plug and the electronic device.

Abstract: An electrical connector assembly comprises an electrical receptacle and a complementary plug connector. The electrical receptacle has an insulative housing defining a first mating cavity with a circular mating post exposed therein and extending along a rear-to-front direction, and a second mating cavity in communication with the first mating cavity but located at a lateral side of periphery of the first mating cavity. A plurality of power terminals are received in the first mating cavity and a plurality of signal terminals are received in the second mating cavity. An electrical plug connector fills the first mating cavity and the second mating cavity at the same time when mated with the electrical receptacle. The electrical receptacle can not only mate with a conventional power plug connector but also mate with the present plug connector to transmit USB signals.

Abstract: An audio connector has an insulating housing having a body. The body has a passageway for receiving an audio plug, and a plurality of installing holes of column shape, each of which extends along a direction substantially perpendicular to an extending direction of the passageway, with one end thereof intercommunicating with the passageway, and the other end thereof reaching an outer surface of the body. A plurality of probe assemblies is respectively mounted to the installing holes. Each of the probe assemblies has a hollow barrel, a plunger slidably mounted to the barrel and exposing from one end of the barrel for projecting into the passageway resiliently, and an elastic element received in the barrel for supporting the plunger. The other end of the barrel is extended opposite to the plunger to form a soldering portion exposing outside the insulating housing.

Abstract: Implantable medical devices include headers having various features such as a modular design whereby the header is constructed from a series of stacked contact modules. Additional features include a feedthrough where pins exiting a housing of the implantable medical device extend into the header to make direct electrical connection to electrical contacts present within the header where those electrical contacts directly engage electrical connectors of leads inserted into the header. Other features include electrical contacts that are relatively thin conductors on the order of 0.040 inches or less and may include radial protrusions where the radial protrusions establish contact with the electrical connectors of the lead. Furthermore, electrical contacts may be mounted within the header in a floating manner so that radial movement of the electrical contact may occur during lead insertion.

Abstract: An electrical connector (100) includes an insulative housing (1) and at least one contact (4) assembled to the insulative housing. The insulative housing defines an insertion hole (15) along a mating direction and a passageway (131) opening at an upper face (10) thereof. The passageway has a first slot (132) at a side face of the insulative housing and a second slot (133) positioned between the first slot and the insertion hole along a transverse direction which is perpendicular to the mating direction. The second slot communicates with the insertion hole. The insulative housing includes a supporting part (134) between the first slot and the second slot. The at least one contact is assembled to the insulative housing from the upper face.

Abstract: A power jack connector for receiving a power plug connector has an insulating housing, a middle pin, a first shell surrounding a rear end of the insulating housing and a second shell having a supporting plate for covering the rear surface of the insulating housing and being connected with the first shell. The insulating housing defines a chamber passing through a front surface and a rear surface thereof for receiving the power plug connector. The middle pin has an inserting portion inserted into the chamber for contacting the power plug connector and a connecting portion. The first shell has a soldering portion for being connected to ground. A middle of the supporting plate defines a window. A plurality of contacting pieces at intervals are extended towards one side from an edge of the window and extended into the chamber for abutting against the power plug connector.

Abstract: A power socket (100) includes an insulative housing (1), a first contact (21) and a plurality of second contacts (22) attached to the insulative housing (1) and means (185); the insulative housing (1) defines an annular first groove (16) and a first cylinder (18) disposed within the first groove (16); the first groove (16) defines a first inner surface (161) and a first outer surface (162); the first cylinder (18) defines a first passageway (181) extending through a center portion thereof along the front to back direction; the first contact (21) has a first contact portion (211) extending into the first passageway (181); each second contact (22) has a second contact portion (221) extending into the first groove (16); the means (185) extending into the first groove (16) for preventing a familiar round power plug from being inserted into the first groove (16).

Abstract: An audio jack connector includes a dielectric housing defining an inserting hole, a movable member, a rotation member, two first switch terminals and two-second switch terminals. The movable member is movably received in the dielectric housing. The rotation member is rotatably received in the dielectric housing. Elastic protrusions protrude from one end of the rotation member. Recessed portions form between every two protrusions. Ends of two first and second switch terminals respectively include a prong, and opposite ends are received in the recessed portion. A plug connector is inserted into the inserting hole, and pushes the movable member to move. The rotation member is driven to rotate to drive the ends of the two first switch terminals and the two second switch terminals to move from the recessed portion to the protrusion, causing the prongs to stay contact with the plug connector.

Abstract: An audio jack connector includes a dielectric housing, a signal terminal and a detection terminal. The dielectric housing defines a receiving trough at a top surface thereof. An opening is defined in the receiving trough with a notch communicated with a rear end thereof. A location slot is defined at a side of the dielectric housing to intersect the notch. The detection terminal is received in the location slot and has an inclined portion inclined towards the notch. The inclined portion has a protuberance provided on an outer surface thereof. The signal terminal is received in the receiving trough and has a concaved portion projected into the insertion hole from the opening and a cantilever arm located to the notch. A free end of the cantilever arm is inclined downward to form a pressing portion for pressing against the protuberance of the detection terminal.

Abstract: An audio jack for an audio plug for use in an electrical device, comprising a non-conductive enclosure having a front side and defining a cavity having an aperture within the front side for receiving the audio plug, the aperture having a first diameter, the cavity extending along a longitudinal axis; a conductive shielding formed from sheet metal folded over at least five sides of the enclosure including the front side, the shielding defining a shielding aperture centered on the enclosure aperture and having a second diameter larger than the first diameter; and a ground contact connected to the conductive shielding.

Abstract: Jack assemblies having cylindrical contacts are provided. For example, an enclosure may provide a cavity with a longitudinal axis for receiving an electrical plug. The jack assembly may also include at least one jack contact positioned in the cavity. The jack contact may include a first end region extending about at least a portion of the axis and a contact region extending from the first end region towards the axis. The first end region may extend completely about the axis or just about a portion of the axis. The contact region may deflect and contact a first conductive region of the plug in multiple contact areas when the plug is inserted into the cavity.