Abstract: An electrical bushing connects a power distribution component with a power line. The electrical bushing includes a connection terminal that is configured to connect with the power distribution component. A core component of the electrical bushing defines a socket that is configured to receive a contact pin associated with the power line. The electrical bushing also includes a radial interposer spring that is configured to complete an electrical connection between the contact pin and the core component when the contact pin is inserted into the socket.

Abstract: An electrical bushing includes a socket that is configured to receive a contact pin and provide an electrical connection between the contact pin and a connection terminal. The socket includes a contact spring that is configured to make contact with the contact pin when the contact pin is inserted into the socket. A helper spring of the electrical bushing abuts an outer surface of the contact spring to apply a force to the contact spring.

Abstract: A wedge connector assembly includes a spring member having a generally C-shaped body with an inner surface, and a wedge member having opposed first and second sides. The wedge member is mated with the spring member such that the wedge member is configured to securely retain a first conductor between the first side and the spring member and a second conductor between the second side and the spring member. The wedge member has at least two final mating positions based on the orientation of the wedge member with respect to the spring member. Optionally, the wedge member may have two orientations, namely a first orientation and a second orientation, wherein the first and second sides are flipped with respect to one another in the first and second orientations. A top of the wedge member may engage the inner surface in the first orientation and a bottom of the wedge member may engage the inner surface in the second orientation.

Abstract: An electrical connector tool assembly is disclosed. The tool assembly includes a conductor tool and a connector tool connected to and cooperable with the conductor tool. The tool assembly can be used in connecting a first conductor to a second conductor with an electrical connector. The tool assembly is adjustably arranged and disposed to receive and removably retain a first conductive member of an electrical connector in the connector tool and is further arranged and disposed to both to hold the second conductor in place relative to a second conductive member of the electrical connector and to prevent rotation of the second conductive member with respect to the first conductive member.

Abstract: An electrical connector assembly includes a first conductive member and a second conductive member. The first conductive member includes a first channel portion extending from a first wedge portion, with the first channel portion configured to receive a first conductor therein. The first conductive member includes a jaw movably coupled to the first channel portion and being positioned between the first channel portion and the first wedge portion. The second conductive member includes a second channel portion extending from a second wedge portion where the second channel portion configured to receive a second conductor. The first wedge portion and the second wedge portion are assembled such that the second wedge portion engages the jaw and moves the jaw to the closed position. The jaw engages the first conductor in the closed position. Optionally, the first channel portion may have a contoured shape.

Abstract: An electrical connector assembly includes a spring member having a generally C-shaped body extending between a leading edge and a trailing edge. The C-shaped body is formed by a first hook portion, a second hook portion, and a central section extending between the first hook portion and the second hook portion. Each of the hook portions are adapted to receive a conductor. The spring member is movable between a normal position and a deflected position, wherein in the deflected position, the spring member imparts a clamping force on the first and second conductors. The assembly further includes a wedge member having a leading end and a trailing end. The wedge is positionable within the spring member to drive the spring member from the normal position to the deflected position, wherein the wedge has an initial position and a final position corresponding to the deflected position of the spring member.

Abstract: A wedge connector assembly includes a spring member having a generally C-shaped body with an inner surface, and a wedge member having opposed first and second sides. The wedge member is mated with the spring member such that the wedge member is configured to securely retain a first conductor between the first side and the spring member and a second conductor between the second side and the spring member. The wedge member has at least two final mating positions based on the orientation of the wedge member with respect to the spring member. Optionally, the wedge member may have two orientations, namely a first orientation and a second orientation, wherein the first and second sides are flipped with respect to one another in the first and second orientations. A top of the wedge member may engage the inner surface in the first orientation and a bottom of the wedge member may engage the inner surface in the second orientation.

Abstract: An electrical connector assembly for power utility transmission conductors includes a first conductive member having a tap conductor engagement surface adapted for interfacing with a tap conductor and a main conductor engagement surface adapted for interfacing with a main conductor. The first conductive member also includes a conductive member engagement surface adapted for interfacing with a second conductive member. The second conductive member is mechanically and electrically coupled to the first conductive member. The second conductive member has a tap conductor engagement surface adapted for interfacing with the tap conductor and a main conductor engagement surface adapted for interfacing with the main conductor. The second conductive member also includes a conductive member engagement surface adapted for interfacing with the conductive member engagement surface of the first conductive member.

Abstract: A touch sensor having an acoustic substrate, an acoustic transducer, and an acoustically diffractive grating is provided. The grating is disposed between the transducer and the substrate, so that acoustic energy from the transducer is coupled to an acoustic wave propagating along the surface of the substrate. If used in a display device, the combination of the transducer and grating may provide a low profile that allows the assembly to be more easily placed between the acoustic substrate and a bezel placed in front of the substrate. No acoustic components need be mounted on the rear surface of the substrate, allowing the acoustic substrate to be formed on the front surface of the display device.

Abstract: An electrical connector assembly for power utility transmission conductors includes a first conductive member having a tap conductor engagement surface adapted for interfacing with a tap conductor and a main conductor engagement surface adapted for interfacing with a main conductor. The first conductive member also includes a conductive member engagement surface adapted for interfacing with a second conductive member. The second conductive member is mechanically and electrically coupled to the first conductive member. The second conductive member has a tap conductor engagement surface adapted for interfacing with the tap conductor and a main conductor engagement surface adapted for interfacing with the main conductor. The second conductive member also includes a conductive member engagement surface adapted for interfacing with the conductive member engagement surface of the first conductive member.

Abstract: An electrical connector assembly includes a main conductive member and a tap conductive member separately fabricated from one another. Each of the main and tap conductive members including at least one conductor receiving channel, wherein the main and tap conductive members together include at least three channels configured to receive conductors therein and extending along three different channel axes. The channel(s) of the main conductive member is configured to receive a main power line conductor, and the channel(s) of the tap conductive member is configured to receive a tap power line conductor.

Abstract: An electrical connector assembly includes a first conductive member having a first hook portion extending from a first base wedge portion and adapted to engage a first conductor, and a second conductive member having a second hook portion extending from a second wedge portion and adapted to engage a second conductor. The first wedge portion and the second wedge portion are adapted to nest with one another and be secured to one another. Each of the first and second conductive members includes a visual alignment indicator to define a final mating relation between the first and second conductive members once fully mated.

Abstract: An electrical connector assembly includes a first conductive member having a first hook portion extending from a first base wedge portion and adapted to engage a first conductor, and a second conductive member having a second hook portion extending from a second wedge portion and adapted to engage a second conductor. The first wedge portion and the second wedge portion are adapted to nest with one another and be secured to one another. Each of the first and second conductive members includes a visual alignment indicator to define a final mating relation between the first and second conductive members once fully mated.

Abstract: An electrical connector for mating with a plurality of contacts separated from one another by a nominal pitch value includes an array of contact surfaces having a first dimension measured in a direction perpendicular to a mating direction between the plurality of contacts and the array of contact surfaces. The first dimension is greater than the nominal pitch value, thereby assuring electrical contact between the contacts and the contact surfaces despite an actual deviation from the nominal pitch.

Abstract: An electrical connector for mating with a plurality of contacts separated from one another by a nominal pitch value includes an array of contact surfaces having a first dimension measured in a direction perpendicular to a mating direction between the plurality of contacts and the array of contact surfaces. The first dimension is greater than the nominal pitch value, thereby assuring electrical contact between the contacts and the contact surfaces despite an actual deviation from the nominal pitch.

Abstract: An electrical contact includes a conductor comprising a series of arch-shaped elements that are formed continuous with one another and extend along a centerline. Optionally, the arch-shaped elements are pitched at an acute angle with respect to the centerline and are arranged in separate parallel planes that are also oriented at an acute angle with respect to the centerline. The arch-shaped elements includes a pair of opposed leg portions, having first ends joined to a bridge portion and having second ends spaced apart to form an opening therebetween. The leg portions of adjacent arch-shaped elements are joined to one another at linking portions. The arch-shaped elements and the centerline can be arranged in a circular geometry about a center point.

Abstract: A electrical connector system comprising a plug assembly and a socket assembly. The plug assembly includes a plurality of conductive pads. The socket assembly includes a first set of spring contacts and a second set of spring contacts. The first set of spring contacts are oriented in a direction opposing an orientation of the second set of spring contacts. Each spring contact within the first and second sets of spring contacts contact one of the plurality of conductive pads.

Abstract: An electrical contact includes a body having a first wall and a second wall opposed to the first wall. A rigid lance is integrally formed with the first wall and projects away from the second wall, and a deflectable biasing beam is integrally formed with the second wall and extends away from the first wall in a direction opposite to the lance.