The invention relates to a device (1) for aligning a solar panel (20) with respect to an installation rail which is attached to a base, in particular a roof, prior to installation. The invention also relates to an assembly comprising at least one solar panel (20) and at least one such device (1) which is coupled to a frame (21) of the solar panel (20). The invention furthermore relates to a method for aligning a solar panel (20), with respect to an installation rail attached to a base, in particular a roof, prior to installation by using at least one such device (1), optionally followed by the installation of the at least one solar panel (20) to the support rail.

An electrical connector (2) comprising a quarter turn fastener (4), the quarter turn fastener (4) comprising a stud (6) having at least one helical cam slot (8) and a receptacle (10) comprising at least one cam follower (24) and a biasing means (12), the connector further comprising means for connection (14) to an electrical assembly, wherein the electrical connector has a first electrical contact surface (16) and a second electrical contact surface (17) and releasably connects the first and second surfaces in operative engagement, and wherein the electrical connector maintains a constant clamp force across the surfaces.

An electrical connector assembly includes an electrical receptacle terminal configured to receive a corresponding electrical plug terminal therein. The electrical receptacle terminal has a helical coil spring. The electrical connector assembly further includes a cable terminal attached to an end of a conductor of an electrical cable. The coil spring is in compressive contact with the cable terminal.

A cable splice includes a casing, a guide, and a pilot cup. The casing has a first opening and an interior cavity. The guide includes a receiving end and a shaft extending at least partially into the interior cavity. The pilot cup is integrally formed with the guide and frangibly connected to the shaft. The cable splice may also include a clamp positioned in the interior cavity and moveable between a loading position and a terminated position. A biasing member urges the clamp into the terminated position. During movement of the clamp from the loading position to the terminated position, the clamp contacts the guide causing at least a portion of the shaft to exit the interior cavity. The guide may also include a rib and a slot allowing the guide to fit in casings having different sized interior cavities.

A contacting device has a housing in which a first contact element is arranged. The first contact element has a receiving chamber for a second contact element, which is open with respect to at least one opening of the housing. The first contact element is displaceable relative to the housing in a direction transverse to a central longitudinal axis of the receiving chamber against a spring element, so that the second contact element is insertable into the receiving chamber and capable of being clamped in the receiving chamber by the spring element. The first contact element is firmly connected to at least one plug-in contact element. By this device, a transmission of electrical energy from a power supply line to a circuit board can be achieved in simple and reliable manner.

An grounding structure of an equipment includes a coil spring provided between a first member of an equipment side and a second member, which includes a metal plate member, of a ground side, wherein the first member and the second member are disposed opposite to each other, one end of the coil spring is brought into press contact with the first member, and the other end of the coil spring is brought into press contact with the second member. An engraved groove is formed at an abutting point of the second member with the coil spring, and is formed such that at least a part of a convex burr part generated along an end edge of the engraved groove abuts the other end of the coil spring.

Disclosed herein are connection systems for establishing electrical connections across a sterile field. An example connection system includes a sensor connector, a probe connector, and a tether having a first end connected to the sensor connector and a second end connected to the probe connector. The sensor connector includes a piercing element. The piercing element is configured to pierce a sterile side of a drape and establish a first electrical connection with a receptacle of a sensor when the piercing element is inserted into the receptacle. The probe connector includes a probe-connecting means configured for a user to establish a second electrical connection between an electrical contact of the probe connector and a wire probe. The tether is configured to convey electrical signals between the sensor connector and the probe connector. Also disclosed herein are methods of connection systems for establishing electrical connections across a sterile field.

An electrically conductive device includes a body portion, a motion portion and a resilient component. The motion portion is movably fitted to the body portion. The resilient component is disposed at the body portion. The body portion, motion portion or resilient component is an electrical conduction component for conducting an electric current. Therefore, the electrically conductive device can be mounted on a first object and conduct an electric current between the first object and a second object to couple together or separate at least two objects and conduct an electric current between the two objects.

A terminal (10) includes a case (20), and a coil spring (30) is accommodated in a compressed state inside the case (20). A first conductive member (40) is sandwiched between one end of the coil spring (30) and an inner wall of the case (20) and has a contact portion (43) movable in a direction to compress the coil spring (30) farther. A flexible wire (60) is connected to the first conductive member (40) and is disposed outside the coil spring (30).

An grounding structure of an equipment includes a coil spring provided between a first member of an equipment side and a second member, which includes a metal plate member, of a ground side, wherein the first member and the second member are disposed opposite to each other, one end of the coil spring is brought into press contact with the first member, and the other end of the coil spring is brought into press contact with the second member. An engraved groove is formed at an abutting point of the second member with the coil spring, and is formed such that at least a part of a convex burr part generated along an end edge of the engraved groove abuts the other end of the coil spring.