Abstract: An electrical connecter (400), such as a jack, has a mating end (402), a first barrel (404), an optional collar (406), a second barrel (408), a body end (410), a center receptacle (412), a first solid dielectric (502) at the mating end of the first barrel, and second solid dielectric (504) at the body end (410) of the second barrel. The first section of the barrel has a smooth and uniform outer wall (404A). This allows the inner diameter (DIS) of the first section of the barrel to be increased without reducing the thickness (T) of the first section of the barrel below a minimum value, and allows the outer diameter (DOC) of the center conductor in the vicinity of the first section of the barrel to be increased to provide for a greater current-handling capability. This provides for maintaining a desired impedance even with the greater current-handling capability.

Abstract: An electrical connector (10) has a body, a center conductor (55), and an insulator (75). The body has a receptacle end (30), a board end (25) having a rear plane (85) and a plurality of fastener holes for a plurality of fasteners (50), a void extending from the receptacle end to the board end, and a grounding feature (70) substantially surrounding the void at the board end, the grounding feature extending beyond the rear plane and being approximately in the shape of a “V” having a base which points away from the rear plane. The center conductor is in the void and extends from the receptacle end to beyond the rear plane of the board end. The insulator is in the void and substantially surrounds the center conductor in the void.

Abstract: A connector (10), for example, an F-connector, has a barrel (12), which may be threaded, a front flange (14), a frame insert (16), a rear flange (20), a body section (22) between the frame insert (16) and the rear flange, an insulator (60) in the barrel, and a center conductor (24) running through the insulator. The body section forms a slot (18) between the frame insert and the rear flange. The rear flange has two sections (20A, 20B), which mirror each other. A section may be a rectangular block with a curved cutoff; the curved cutouts face each other and, together, provide a passageway for the conductor. The conductor is preferably beryllium-copper with a tin plating. The insulator is preferably a high-temperature thermoplastic, such as a heat-resistant polyamide nylon which can withstand a temperature of 270° C. for 1 minute.

Abstract: A connector (400), such as a plug or a receptacle, has reduced cross-talk. The connector has a conductive plate (305), first and second insulators (310A, 310B) on either side of the conductive plate, leads (115) outside of the insulators, the leads being formed from first and second lead-frames, at least one of the leads (115, 315) having at least one tab or extension (320) which capacitively or conductively couples the lead to the conductive plate. The plate (305) may include an extension shaft (540), and a lateral extension (320) from a lead may be placed into contact with the shaft. A lateral extension (320E) formed on a rear portion of a lead may be placed into contact with a rear portion of the conductive plate (305B1) or with an opposing lead. Some of the leads may include severable tie bars (705).

Abstract: A tablet cover (100) and circuitry (400) provide for convenient connection of a tablet (105) or other personal electronic device to additional memory, functions, and features as provided by an internal device (215) and/or an external device (160). The circuitry selectively connects the tablet, the external device, and the additional memory together. The additional memory is internal to the case and is thereby protected from loss or damage due to accidental impact.

Abstract: A blind-mate connector (10, 20, 100) has a barrel (11, 21, 105), a base (12, 22, 110) at the back end of the barrel, an insulator (17, 27) mounted in the base, and a center conductor (15, 25) extending from near the front end of the barrel, through the insulator, and extending beyond the back end of the base, with the center conductor being held by the insulator. One type has sidewalls (13, 23) extending rearwardly from the back end of the base, and alignment notches (14, 24) on the sidewalls, the alignment notches extending only partially from the back ends of the sidewalls toward the base. Another type has alignment tabs (125) extending rearwardly from the back end, and sidewalls (130) extending rearwardly from the back end of the base, the first tab being above the first sidewall.

Abstract: A heat-dissipating EMI/RFI shield (100) has a shield base (110), a shield cap (130), and a heat sink (150). The shield base has at least one sidewall (112) which defines an open area (113). At least one mounting leg (114) extends from the sidewall and is affixed to a printed circuit board (200). The shield cap has a collar (136) which defines an opening in the shield cap. The shield cap is configured to be mated to the shield base. The heat sink has a boss (156) extending therefrom. The heat sink is configured to be mated to the shield cap. The boss is configured to protrude at least partially into the opening in the shield cap and to make thermal contact with a selected heat generating component (210) on the printed circuit board.

Abstract: A magnetic connector system (100) having a cable-end connector (110) and a printed circuit board connector (115). The cable-end connector has a ferro-magnetic strike plate (155). The printed circuit board connector has plugs or bosses (120A, 120B) which mate with corresponding sockets in the cable-end connector and are configured to properly align or orient the connectors. The plugs may include electrical contacts (120A1, 120A2, 120B1) which mate with corresponding electrical contacts in the cable-end connector. The printed circuit board connector has a magnet assembly (122) which is inserted or installed into a receiving area, and secured by retainers, after the printed circuit board connector has been wave- or reflow-soldered to a printed circuit board. The magnet assembly and the strike plate hold the cable-end connector and the printed circuit board connector together.

Abstract: A digital card connector assembly (10) for mounting to a panel (100) having a slot (101) whereby a digital card (90) may be inserted into the digital card connector assembly to communicate with an electronic device (95). The digital card connector assembly includes a connector body (10), a cable assembly (50), and a radio frequency (RF) shield (30). The connector body has a plurality of electrical contacts configured to make contact with a plurality of electrical contacts of the digital card when the digital card is inserted into the digital card connector assembly. The cable assembly has a plurality of electrical conductors (87) electrically connected to the plurality of electrical contacts of the connector body. The RF shield is affixed to the connector body and is configured to make electrical contact with the panel when the digital card connector assembly is mounted to the panel.

Abstract: A card connector for use with a card comprising electronic circuitry and a card reader device comprising electronic circuitry which can communicate with the card. The card connector is configured to receive the card when the card is inserted into the card reader. The card connector has a connector body and an attached cover. The connector body includes a plurality of electronic contacts that engage the card circuitry and operationally link the card to the card reader device. The cover includes one or more retaining springs which engage the card to secure the card and draw heat from the card. The cover also has a lip or tongue and grounding tabs which provide electrostatic discharge protection.

Abstract: An F-connector for a coaxial cable has a substantially flush, coplanar face comprising a first insulator, locking ring, and connector body with a swaged leading edge. Within the connector body a connecting lead is attached to and spans between the first insulator and a second insulator. The F-connector may be constructed by a process that permits front-loading of the connecting lead and insulators, or by a process that permits back-loading of the connecting lead and insulators, or by a process that permits partial back-loading and partial front-loading of the connecting lead and insulators.

Abstract: A connector (200), such as but not limited to a coaxial female F-connector, has an integral surge protector. The F-connector includes a connector body (220) with an extended center conductor lead (215). Attached to the F-connector and substantially surrounding the lead is an inductor, such as a toroid core (300) having windings (315) thereon. In one configuration one end (320) of the windings is attached to the center conductor lead and the other end (325) is attached to an electrical ground. In another configuration that other end is attached to a circuit ground via a capacitor, a power supply, or a biasing circuit. The inductor serves to shunt a surge to ground. A series capacitor is connected between the center conductor lead and an input/output port on an electronic circuit, passes the desired signal, and further helps to prevent a surge from reaching the device.

Abstract: A digital card connector assembly (10) for mounting to a panel (100) having a slot (101) whereby a digital card (90) may be inserted into the digital card connector assembly to communicate with an electronic device (95). The digital card connector assembly includes a connector body (10), a cable assembly (50), and a radio frequency (RF) shield (30). The connector body has a plurality of electrical contacts configured to make contact with a plurality of electrical contacts of the digital card when the digital card is inserted into the digital card connector assembly. The cable assembly has a plurality of electrical conductors (87) electrically connected to the plurality of electrical contacts of the connector body. The RF shield is affixed to the connector body and is configured to make electrical contact with the panel when the digital card connector assembly is mounted to the panel.

Abstract: A connector (200), such as but not limited to a coaxial female F-connector, has an integral surge protector. The F-connector includes a connector body (220) with an extended center conductor lead (215). Attached to the F-connector and substantially surrounding the lead is an inductor, such as a toroid core (300) having windings (315) thereon. In one configuration one end (320) of the windings is attached to the center conductor lead and the other end (325) is attached to an electrical ground. In another configuration that other end is attached to a circuit ground via a capacitor, a power supply, or a biasing circuit. The inductor serves to shunt a surge to ground. A series capacitor is connected between the center conductor lead and an input/output port on an electronic circuit, passes the desired signal, and further helps to prevent a surge from reaching the device.

Abstract: This disclosure is directed to apparatuses, systems, and methods associated with a connector assembly for use with surface mount technology (SMT). The connector assembly has a connector header configured to be mounted to a circuit board and is constructed of a high-temperature resistant material suitable for use with a reflow soldering process. The connector header includes at least one connector socket and at least one mounting shoulder, and is configured to be coupled to a header attachment assembly. The header attachment assembly comprises at least one connector pin and at least one mounting shoulder, and is configured to be coupled to the connector header. An electronic device, such as a card reader or hard drive, may be connected to the header attachment assembly and thereby to the circuit board. The connector assembly allows for the obstructed view inserting and attaching in a manual or an automated assembly process.

Abstract: An F-connector for a coaxial cable has a substantially flush, coplanar face comprising a first insulator, locking ring, and connector body with a swaged leading edge. Within the connector body a connecting lead is attached to and spans between the first insulator and a second insulator. The F-connector may be constructed by a process that permits front-loading of the connecting lead and insulators, or by a process that permits back-loading of the connecting lead and insulators, or by a process that permits partial back-loading and partial front-loading of the connecting lead and insulators.

Abstract: This disclosure is directed to apparatuses, systems, and methods associated with a heat-dissipating card connector for use with a card reader connected to an electronic device. The connector has a body configured to receive a card that has circuitry, when the card is inserted into the card reader. The connector body includes a plurality of electronic contacts that engage the card circuitry and operationally link the card to the electronic device. The connector body includes at least one heat conductive spring that includes a card engaging portion. The card engaging portion contacts the card and directs heat from the card when the card is inserted in the card reader. A heat directing element, also part of the heat conductive spring, transfers heat from the card engaging portion to a heat-dissipating structure of the electronic device when the card is inserted in the card reader.

Abstract: An F-connector for a coaxial cable comprises a front insulator, a back insulator, a connecting lead, and a locking ring. The connecting lead has an interior portion and an exterior portion. The interior portion is configured with a pair of side wall portions which are parallel to each other, and which together with a bottom portion form a U-shaped channel. The side wall portions each comprise a curved portion that are configured to grip the center conductor of the coaxial cable so as to withstand a certain level of withdrawal force, and such that the F-connector exhibits a desired impedance of 75 Ohms. The connecting lead engages with the front insulator and the back insulator such that the components are held in position within a connector body.

Abstract: Concepts and technologies described herein provide for securing a connector shell to a circuit board using a separate connector hat with elongated mounting posts. According to one aspect of the disclosure provided herein, a connector hat includes a one-piece body with a top surface and a pair of mounting posts. The mounting posts extend downwards from opposing side edges of the top surface. The posts are of sufficient length to extend beyond a bottom surface of a connector shell to which the connector hat is configured to attach, and through a bottom surface of an associated circuit board. The two-piece connector assembly design utilizing the connector hat with mounting posts allows the mounting posts to be manufactured at any desirable length to facilitate installation of the connector assembly to a circuit board.

Abstract: Concepts and technologies described herein provide for securing a connector shell to a circuit board using a separate connector hat with elongated mounting posts. According to one aspect of the disclosure provided herein, a connector hat includes a one-piece body with a top surface and a pair of mounting posts. The mounting posts extend downwards from opposing side edges of the top surface. The posts are of sufficient length to extend beyond a bottom surface of a connector shell to which the connector hat is configured to attach, and through a bottom surface of an associated circuit board. The two-piece connector assembly design utilizing the connector hat with mounting posts allows the mounting posts to be manufactured at any desirable length to facilitate installation of the connector assembly to a circuit board.