A two-part fitting has a first part with an elongated vertical cavity open on a first side, the cavity of a depth and width to accommodate a vertical support rod, with two male threaded posts extending horizontally on a second side of the first part opposite the first side, and a second part having a male threaded screw engaged in a female threaded hole through a portion of the second part. The fitting is characterized in that the first and second parts are adapted to join together enclosing the vertical support rod in a manner that the male threaded screw of the second part impinges on the vertical support rod.

A lighting-junction-box may have sidewalls that bound a cavity. The cavity may be configured to receive an electronic component that is configured to emit light. The sidewalls may be divided into an upper-portion and a lower-portion. The lower-portion may be substantially cylindrical in shape. The upper-portion may be substantially octagonal in shape, except that two of the eight faces may be curved, while the remaining six faces may be flat and planar. The two curved faces may be oppositely disposed from each other. The two curved faces may have holes for receiving carriage-bolts for attaching adjusting-plates to the lighting-junction-box. Below the holes of the two curved faces on the lower-portion may be external-length-gauges to assist with mounting the lighting-junction-box. The adjusting-plates may have slots for receiving the carriage-bolts and to allow for vertical adjustment of the lighting-junction-box with respect to the adjusting-plates.

A one-piece injection molded plastic electrical box. The box has an integrated lid which is connected to the body of the box via a living hinge, also formed during the molding process. Four slots on either of four walls allow wires to enter the box from all sides. These openings have doors are designed to bend down, allowing space for the wires to be inserted. Once all wires are placed within the box, the top lid is closed and latched. The bent opening doors act as clamps to secure the wires by applying pressure to the wires as those doors attempt to bend back to their original orientation. This box may be installed without requiring power to be cut off to the splice connection.

An electrical box assembly is provided that includes an electrical box and a bracket connected to the electrical box with the bracket being configured to mount the electrical box to a stud, a brace assembly, in a gang application, or, when the electrical box is a first electrical box and the bracket is a first bracket that is mounted to a first side of the stud, a second bracket connected to a second electrical box can be mounted to a second side of the stud at the same time that the first bracket is mounted to the first side of the stud so that at least a portion of the first bracket is at the same height of at least a portion of the second bracket on the stud. A flat blank for a brace is additionally provided that includes a middle portion connected between a first strip and a second strip, a first cutout being formed between the first strip and the middle portion, and a second cutout being between the second strip and the middle portion.

Disclosed herein are mounting brackets that allow fixtures to be adjustably attached to the bracket during installation, and positioned after attaching the mounting bracket to the mounting surface. The mounting brackets and installation methods disclosed herein provide more efficient installations of fixtures including as electrical junction boxes, communications boxes, conduit, pipe, lighting, and cables.

A mounting bracket is provided for an electrical device that can be configured for use with a support that has a first and a second rail. The mounting bracket can include a mounting body with a mounting face configured to secure the electrical device to the mounting bracket between the first and second rails when the mounting bracket is secured to the support. The mounting bracket can include a first attachment device connected to the mounting body and a second attachment device connected to the mounting body opposite the first attachment device. Each of the first and second attachment devices can include a first arm configured to engage with a first side of the corresponding first or second rail, and a second arm configured to engage with a second side of the corresponding rail, opposite the first arm.

A junction box having a cavity to contain electrical wires that provide a connection to a building mains voltage from an electrical system of a building is coupled to a plurality of telescoping hanger bars to hold the junction box in a wall or ceiling in the building. Each telescoping hanger bar is extendible and/or retractable to vary a length of the hanger bar. A position of the junction box is adjustable along the length of each telescoping hanger bar. In one example, the apparatus does not include a can, separate from the junction box, to contain a lighting device of a recessed lighting assembly.

A rectangular or square mud ring assembly includes a base member, a raised member, a telescoping member and a plurality of drive members. The base member has a flange and a rectangular or square opening through the flange. The raised member extends from the base member and follows the rectangular or square opening in the flange to form a rectangular or square raised wall. The raised member has a plurality of mounting tabs extending from the raised wall toward the opening in the raised member. The telescoping member is positioned within the raised member opening and is movable relative to the raised member between a retracted position and an extended position. The telescoping member has a rectangular or square wall, an opening and a plurality of mounting tabs extending from the rectangular or square wall toward the opening in the telescoping member. The rectangular or square wall of the telescoping member includes a plurality of protective members. Each protective member is positioned in proximity to one of a plurality of mounting tab pairs. In this configuration, one of the plurality of drive members is operatively coupled to the mounting tabs of one of the mounting tab pairs, such that rotation of the drive members causes the telescoping member to move between the retracted position and the extended position.

A system for adjustably mounting a component of an electrical assembly to a wall structure; the wall structure including at least a wallboard. The system is configured so that an outward facing surface of the component may be adjustably positioned relative to the outward facing surface of the wallboard. The system comprises of a bracket disposed between adjacent studs of a wall structure, a base plate, a mounting plate, a cover plate, protective plate, an electrical component fastener, and an electrical component opening. A method for adjustably mounting a component of an electrical assembly to a wall structure comprising a mounting plate, a base plate, a bracket, a stud of the wall structure, a planar surface of the wall structure with adhesive, threaded fasteners, a component of an electrical assembly, a cover plate, and a protective plate.

A load center assembly is provided. The load center assembly comprises a frame, an electrical panel assembly, and a plurality of electrical wire harnesses. The frame includes a first side and a second side. The first side and the second side are substantially parallel and connected by a plurality of cross members. The electrical panel assembly is connected to the first side and the second side. The electrical panel assembly includes a plurality of breakers. The plurality of electrical wires harnesses is connected to the frame. Each of the plurality of electrical wire harnesses includes a plurality of wires. A first end of each wire of the plurality of wires is routed into the electrical panel assembly and is terminated in a corresponding breaker. The load center assembly is configured to be disposed in a wall frame.