Abstract: In a connector (1), one end parts (31A) of first terminals (3A), one end parts (31B) of a plurality of second terminals (3B) and one end parts (31C) of a plurality of third terminals (3C) are arranged in parallel to each other along a first direction (D1). One end part (20C) of a third core resin portion (2C) sandwiches one end part (20A) of a first core resin portion (2A) and one end part (20B) of a second core resin portion (2B) from both sides in a second direction (D2). The one end part (20A) of the first core resin portion (2A) and the one end part (20B) of the second core resin portion (2B), and the one end part (20C) of the third core resin portion (3C) are shaped to be locked in a third direction (D3).

Abstract: An insulation displacement arms. The insulation displacement arms define a conductor or wire receiving slot. The insulation displacement arms have insulation stripping sections, weakened sections and base sections. The weakened sections have weakened section widths which are less than insulation stripping section widths of the insulation stripping sections and less than base section widths of the base section. The weakened sections are resiliently deformed upon one or more insulated conductors engaging the insulation stripping sections of the insulation displacement arms as the one or more insulated conductors are inserted into the insulation stripping zone of the wire receiving slot, allowing the insulation displacement contact to accommodate the one or more insulated conductors of the same type and gauge chosen from a broad range of gauges.

Abstract: This invention is an active cable or cables with a female micro USB or other connector recessed at the rear end of the HDMI plug for connecting external power when needed. The recessed connector is connected to an internal circuitry that combines this external power with the power from the source or sink device via a straight or “OR” circuits. This design is clean when no external power is needed because there're no dangling pigtails with USB plugs. When external power is needed because the source or sink devices can't provide enough current, the user can use for example widely available male micro USB to male USB cable (the standard charging cable for most Android phones and many other computer or phone accessories) or other cable to get external power, and the cable length can be selected to fit the application.

Abstract: In the plug connector, the front end side of a fiber optic cable used for optical signal transmission is connected to, and rearwardly extends from, the rear end side of said plug connector and lateral terminals are arranged in each of a pair of lateral edge portions that extend in the forward-backward direction; at least one of the plug connector and receptacle connector has provided therein resilient members that generate a biasing force between the plug connector and receptacle connector in the forward-backward direction; and, a restricting portion, which provides a limiting value for the distance of relative displacement of the plug connector with respect to the receptacle connector in the direction of the biasing force under the action of the above-mentioned biasing force, is formed in the receptacle connector, and a restricted portion is formed in the plug connector.

Abstract: A connector comprises an external mounting flange that provides a housing in which a gimbal shell assembly sits and pivots. An internal recessing shell is capable of having an electrical connection with the gimbal shell assembly, wherein when the gimbal shell assembly is disengaged, no electrical connection exists between internal recessing shell and gimbal shell assembly. A center screw is capable of being torqued to disengage and reengage the gimbal shell assembly.

Abstract: A connector includes a cylindrical connector housing having a retainer and a terminal accommodating chamber in which a terminal is to be inserted. The retainer has first and second flat plate portions, a side plate portion, and a front plate portion. The retainer is attached to the cylindrical connector housing along an attaching direction. An engagement portion is provided on a side end edge of the first flat plate portion along the insertion direction of the terminal, and is engaged with an engagement projection provided on a housing outer surface of the cylindrical connector housing. A releasing jig insertion hole is provided on the first flat plate portion. The releasing jig insertion hole has, with respect to the housing outer surface, a releasing jig insertion hole angle that is larger than a releasing jig insertion portion angle of the releasing jig.

Abstract: A connector assembly includes electrical terminals, a connector housing, and a primary lock reinforcement device. The electrical terminals are configured to mate with corresponding electrical terminals along a mating axis of the connector assembly. The connector housing is configured to retain the electrical terminals within terminal cavities defined by a terminal tower disposed within the connector housing. The primary lock reinforcement device is configured to slideably engage the terminal tower and is moveable from a prestaged position to a full staged position. The primary lock reinforcement device has a base and a skirt defining a cavity having a flexible beam disposed within and terminating at a tip. The tip engages a stop in the connector housing in the prestaged position inhibiting a movement of the primary lock reinforcement device along the mating axis.

Abstract: A hermaphroditic connector for use in single or multiple twisted-pair connectivity applications is constructed using a small number of parts having a simple but durable assembly. The connector housing comprises an elongated form factor that, when mated with a similar hermaphroditic connector, forms a rigid overlapping shield around the electrical contacts of the two connectors. While unmated, the conductive tines within the connector have a default curved profile that facilitates reliable connectivity with tines of a mating connector. When the connector is mated with a similar connector, the tines are deformed to a flatter profile by support plates within the connectors, yielding a shape more conducive to high-frequency signal applications. The shape of the tines also yields multiple in-line redundant contact points to ensure reliable connectivity without adding to the width of the connector.

Abstract: A drive loading jig, drive carrier assembly and method of using the same to insert and remove a drive from a host reduce the likelihood of a drive being damaged during insertion or removal. Such a drive loading jig has side walls with respective slots and a rear wall joining the side walls. Each of the slots includes multiple restraining walls to restrain a drive, when positioned in the jig, from bending with respect to a plane parallel to a major surface of the drive and from moving in a direction substantially perpendicular to the major surface. Stoppers formed in the side walls or rear wall define a maximum insertion depth of the drive. An alignment key-way on the loading jig is used to align the drive in the proper orientation prior to inserting the drive into the loading jig.

Abstract: A plug has a seat, a circuit board disposed in the seat, and a waterproof terminal connector disposed on the seat. The waterproof terminal connector has two terminals and a cover. Each one of the terminals has a tube portion, a division plate, and a connecting portion. The tube portion has a chamber formed in the tube portion. The division plate is formed in the tube portion for dividing the chamber of the tube portion into a first space and a second space. The connecting portion is formed on the tube portion. The cover is formed by an overmolding process, is connected to the two terminals and fills the second spaces of the two terminals. Water vapor can be stopped by the division plate for improving the waterproof effect of the plug.

Abstract: An electrical connector includes a first member, a second member, and a sleeve connected to the first member. The sleeve may connect with a first component. The second member may connect with a second component. The first member may include a flange. The first portion of the sleeve may be disposed substantially at a first axial side of the flange. A second portion of the sleeve may be disposed substantially at a second axial side. The first and second members may include corresponding latching portions configured to selectively connect the first member with the second member and restrict relative axial movement between the first member and the second member. The latching portion of the second member may include a latching spring, and the latching portion of the first member may include a latching spring groove. When latched, the latching spring may be at least partially in the latching spring groove.

Abstract: An easily assembled connector includes an insulative base (10), a plastic core (20) and conductive terminals (30). The insulative base (10) has a chamber (12). The plastic core (20) is correspondingly received in the chamber (12) and has a guiding hole (21) and troughs (22) surrounding and communicating with the guiding hole (21). Each trough (22) is formed with a terminal hole (A). The conductive terminals (30) are separately correspondingly installed in the terminal holes (A).

Abstract: A connector assembly configured for compact, high speed electronic systems. The assembly includes a board connector and a cable connector that may be mated by moving the cable connector in a mating direction perpendicular to a printed circuit board to which the board connector is mounted. The cable and board connectors may latch when mated and may be unlatched and unmated by pulling on a tab at a top of the cable connector in a direction opposite the mating direction. As a result, little clearance is required around the board connector to access the latching components. Such a connector may enable an electronic device with high signal integrity because the connector can be mounted close to an electronic component that processes high speed signals, providing a short, and high integrity signal paths for high speed signals.

Abstract: A power delivery module includes a frame having rails defining an opening that receives an electronic package. A bottom of the frame is mounted to a host circuit board and faces an upper surface of the electronic package. The frame is a layered structure including a power plate, a ground plate, and an insulator electrically isolating the power plate from the ground plate. The power deliver module includes module power contacts electrically connected to the power plate and extending from the bottom for electrical connection to package power contacts of the electronic package. Module ground contacts are electrically connected to the ground plate and extend from the bottom for electrical connection to package ground contacts of the electronic package. The module power contacts and the module ground contacts deliver power to the electronic package.

Abstract: An electrical connector including a base member and a plurality of first terminals disposed in the base member is provided. Each of the first terminals has an contact segment and an tail segment opposite to each other. The contact segments respectively belong to two different parallel planes, and the tail segments are located on a same plane. The first terminals form a plurality of terminal sets in the tail segments, and each of the terminal sets includes a ground terminal, a pair of super speed differential terminals, and a power terminal which are adjacent to each other and are sequentially arranged.

Abstract: An electrical connector includes a flexible circuit with a flexible material and traces at least partially embedded in the flexible material. The electrical connector further includes a first set of conductive bumps, a second set of conductive bumps, and a stiffener. The first set of conductive bumps is coupled to respective first end portions of the traces and extends from a first side of the flexible circuit. The second set of conductive bumps is coupled to respective second end portions of the traces. The stiffener is coupled to the flexible circuit on a second side of the flexible circuit opposite the first side.

Abstract: A shielded-cable pass-through assembly configured to provide electrical contact between a shielding-layer of a shielded-cable and a boundary through which the shielded-cable passes includes a metallic-sleeve and a contact-terminal. The metallic-sleeve defines a shield-surface used to make electrical contact with a shielding-layer of a shielded-cable. The contact-terminal defines a contact-feature used to make electrical contact with the boundary through which the shielded-cable passes. The contact-terminal also defines a plurality of inner-contact-fingers extending from the contact-terminal in a longitudinal-direction parallel to a longitudinal-axis of the shielded-cable. The plurality of inner-contact-fingers is urged in a radial-direction to make electrical contact with a contact-surface of the metallic-sleeve after the assembly is assembled.

Abstract: A shield terminal (20) includes an inner conductor terminal (21) and an outer conductor terminal (22) surrounding the inner conductor terminal (21). The outer conductor terminal (21) has a pull-out opening (46) through which an inner conductor connecting piece (26) of the inner conductor terminal (21) is pulled toward a circuit board (90). The outer conductor terminal (22) includes outer conductor connecting pieces that face the pull-out opening (46) and that include first and second outer conductor connecting pieces (53, 54) located on both sides across the inner conductor connecting piece (26) in a plan view and a third outer conductor connecting piece (42) that faces the inner conductor connecting piece (26) in a direction orthogonal to an arrangement direction of the first and second outer conductor connecting pieces (53, 54) at a position between the first and second outer conductor connecting pieces (53, 54) in the arrangement direction.

Abstract: The disclosure relates to an electrical connector system including a first connector having a plurality of cantilevered fingers disposed along a mating face thereof, and a second connector having a conductive central core including a plurality of open slots designed for receiving the plurality of cantilevered fingers. When the connectors are mated, each cantilevered finger sits within a respective slot at a sufficient depth therein to improve vibration resistance of the mated electrical connector.

Abstract: A connector (10) has: a terminal (20); a base insulator (30) having a holding hole (330); and a front insulator (40) having a passage hole (430). The terminal (20) has: a cylindrical section (22); a lance (26) extending from the cylindrical section (22); and a stopper (270) projecting from the cylindrical section (22). The terminal (20) is retained by the holding hole (330). A retaining portion (334) inside the holding hole (330) is positioned between the lance (260) of the terminal (20) and the stopper (270). A gap is formed between an inner wall (332) of the holding hole (330) and the cylindrical section (22) of the terminal (20). The front insulator (40) is attached to the base insulator (30). The passage hole (430) is positioned in front of the holding hole (330). The passage hole (430) is smaller than the cylindrical section (22) of the terminal (20).