An electrical power connector and an electrically conductive terminal are provided. The electrical power connector includes an insulating housing, multiple electrically conductive terminals, and at least one position fixing member. The insulating housing includes multiple column bodies and a convex rib structure, the column bodies extend in a first direction and are arranged at intervals, and the convex rib structure extends in a second direction and is formed in an intersecting arrangement. An inside of the insulating housing has multiple tunnels that correspondingly penetrate through the column bodies in the first direction. Multiple grid passages are formed by the convex rib structure. The electrically conductive terminals are respectively mated in the grid passages and the tunnels. The electrically conductive terminals are each connected to a cable. The at least one position fixing member is embedded on at least one side of the convex rib structure.

Implementations of semiconductor packages may include: a die coupled to a substrate; a housing coupled to the substrate and at least partially enclosing the die within a cavity of the housing, and; a pin fixedly coupled to the housing and electrically coupled with the die, wherein the pin includes a reversibly elastically deformable lower portion configured to compress to prevent a lower end of the pin from lowering beyond a predetermined point relative to the substrate when the housing is lowered to be coupled to the substrate.

A quick connect terminal assembly for attaching a conductor to an electrical circuit includes a terminal which can be attached to an electrical circuit. A retainer engages the terminal which defines a conductor space between the retainer and the terminal. The conductor space insertably receives an end of a conductor. The retainer is biased toward the terminal to compress the conductor between the terminal and the retainer. Each of the retainer and the terminal is comprised of an electrically conductive material to facilitate electrical communication between the conductor and the electrical circuit. A sheath is positioned around the terminal and the retainer to inhibit electrical communication between the conductor and external objects.

A connection device for a shield conductor of an electrical line includes: a housing attachable to a potential collector, into which housing the electrical line with the shield conductor is insertable; a spring element which is arranged adjustably on the housing, which spring element has a clamping leg and is movable relative to the housing from an open position into a clamping position in order to, in the clamping position, act with the clamping leg on the shield conductor of the electrical line inserted in the housing; and a locking element which is adjustable, relative to the housing, between a locking position, in which the housing attached to the potential collector is locked with the potential collector, and an unlocking position for releasing the housing from the potential collector.

An electrical connector includes an insulative housing, and a pair of contacts which are secured together by a clamp mounted within the housing. Each electrical contact includes a planar body, spring fingers extending from a first end of the body, and a coupling extending from the body to couple the electrical contacts to the housing. A first deflection zone between the clamp and first ends of the spring fingers allows the spring fingers to deflect in a lateral direction to receive the conductive component within the receiving space. A second deflection zone between the first ends of the spring fingers and the second ends of the bodies allow the bodies and spring fingers to deflect in the lateral direction when the conductive component is received within the receiving space, but the conductive component is not directly aligned with the receiving space.

An electrical connector includes an insulative housing, and a pair of contacts which are secured together by a clamp mounted within the housing. Each electrical contact includes a planar body, spring fingers extending from a first end of the body, and a coupling extending from the body to couple the electrical contacts to the housing. A first deflection zone between the clamp and first ends of the spring fingers allows the spring fingers to deflect in a lateral direction to receive the conductive component within the receiving space. A second deflection zone between the first ends of the spring fingers and the second ends of the bodies allow the bodies and spring fingers to deflect in the lateral direction when the conductive component is received within the receiving space, but the conductive component is not directly aligned with the receiving space.

The present invention relates to a terminal (1) with a spring force terminal connection (2) with at least one conductor terminal point (K), an insulating material housing (6), a conductor introduction channel (60), and a release lever (5). The release lever (5) is mounted in the insulating material housing (6) pivotably about a pivot axis (A) extending transverse to a conductor introduction direction (E) of an electric conductor between an idle position with closed conductor terminal point (K) and an actuating position with opened conductor terminal point (K). The release lever (5) has two lever arm portions (50) which are spaced apart from one another and which are immersed on both sides of the conductor introduction channel (60) at least partially into the insulating material housing (6). The lever arm portions (50) have in each case a guide portion (53) which face one another and form between them at least a part of the conductor introduction channel (60). The guide portions (53) in the idle position and/or in the actuating position, as seen in the conductor introduction direction, run toward the conductor terminal point (K) in a manner which narrows the conductor introduction channel (60).

A grounded FRL for treating a pressurized air supply has a housing with a connecting mechanism for connecting to a collector bowl. The collector bowl is made from a metal base material and has an open end with a connecting mechanism and a closed distal end. The housing has a flange that is electrically conductive and extending downwardly at an exterior of the bowl. At least one grounding clip member is made from electrically conductive material and has an exterior mounting end attached to the flange for electrical connectivity thereto and has a radially inner end that electrically makes contact with the metal base materials of the collector bowl and the housing.

The present disclosure relates to a connector for a bus bar including a bar-shaped finger divided into a central portion, a pair of end portions symmetrically formed on opposite sides of the central portion, and a pair of connecting portions respectively formed between the central portion and the pair of end portions. The connector for a bus bar includes: a plurality of fingers, at least two or more of which are stacked in the thickness direction perpendicular to the longitudinal direction to form one side portion and at least two or more of which are stacked in the thickness direction to form the other side portion disposed opposite to the one side portion; a pair of coil springs, one end and the other end of which is fixed to the one side portion and the other side portion to be arranged at a predetermined distance apart from each other with respect to the central portion of the finger; and a bracket for supporting the one side portion and the other side portion.

A lever connector for contacting electrical conductors includes features and improvements over other lever connectors. The lever connector includes a housing, a busbar located within the housing, one or more lever mechanisms, and one or more resilient members that connect the lever mechanisms to the busbar. The lever mechanism includes a lever located on a near side of the busbar bridge and a lifting mechanism located on a far side of the busbar bridge opposite the near side of the busbar bridge. When the lever is actuated and lifted upwards and away from the housing, the lifting mechanism moves the resilient member to release away from the busbar. When the lever is closed and pushed downward toward the housing, the lifting mechanism moves the resilient member downward to push the electrical conductor against the busbar, thereby making electrical contact between the electrical conductor and the busbar.