Abstract: A service-entrance plug-on neutral (SEPON) device having a conductive neutral sled having a line sled side and a load sled side configured to electrically couple with a neutral bus of a bus assembly of a switchboard or panelboard when the SEPON device is installed on the bus assembly; a lug assembly having one or more electrically conductive terminal lugs configured to receive line neutral current from an external source and to electrically couple to the line sled side; a movable neutral disconnect link movable into a connection position to establish electrical continuity between the line sled side and the load sled side and into a disconnection position to cause a discontinuity between the line sled side and the load sled side; and a main bonding jumper having first mounted to the line sled side and a second ends configured to be moved between a non-connected position and a ground position.

Abstract: The present invention provides a method for installing circuit breakers of different frame sizes into an electrical distribution device at the at the factory or on the jobsite without having to remove the original factory installed line and load busing and installing new line and load busing for the particular frame size of the circuit breaker to be installed. The invention also provides a means for reducing the number of line and load busing assemblies that the electrical distribution device manufacturer must keep in inventory.

Abstract: The present invention provides a method for installing circuit breakers of different frame sizes into an electrical distribution device at the at the factory or on the jobsite without having to remove the original factory installed line and load busing and installing new line and load busing for the particular frame size of the circuit breaker to be installed. The invention also provides a means for reducing the number of line and load busing assemblies that the electrical distribution device manufacturer must keep in inventory.

Abstract: A service-entrance plug-on neutral (SEPON) device having a conductive neutral sled having a line sled side and a load sled side configured to electrically couple with a neutral bus of a bus assembly of a switchboard or panelboard when the SEPON device is installed on the bus assembly; a lug assembly having one or more electrically conductive terminal lugs configured to receive line neutral current from an external source and to electrically couple to the line sled side; a movable neutral disconnect link movable into a connection position to establish electrical continuity between the line sled side and the load sled side and into a disconnection position to cause a discontinuity between the line sled side and the load sled side; and a main bonding jumper having first mounted to the line sled side and a second ends configured to be moved between a non-connected position and a ground position.

Abstract: A system is provided for supporting an electrical component in an electrical device of an electrical distribution system. The system includes at least one hook connected to a cabinet frame or structural member of the electrical device; and at least one rod attached to the electrical component. The at least one rod is slidably received in the hook such that the electrical component is held in close proximity to the cabinet frame or structural member of the electrical device while the electrical component is being attached to the cabinet frame or structural member by hardware. The electrical component can be a bus assembly of a switchboard.

Abstract: An electrical cabinet includes a cabinet frame, two or more hoist brackets, a hoist bar, and a hoist mechanism. The cabinet frame has a top section and a bottom section. The bottom section rests on an underlying supporting surface, and the top section is positioned at an opposing side of the cabinet frame from the bottom section. The hoist brackets are coupled to the top section of the cabinet frame. Each of the hoist brackets has a respective indentation. The hoist bar rests in the indentations of the two or more hoist brackets, and includes a first groove. The hoist mechanism rests in the first groove of the hoist bar. The hoist mechanism is configured to facilitate lifting and positioning of an electrical component of a power distribution system within the electrical cabinet. The electrical component can be a bus assembly for a switchboard.

Abstract: The present invention discloses a field assembled electrical distribution device assembled from various prepackaged modular kits. The prepackaged modular kits include all of the components required for their assembly. The prepackaged modular kits, when assembled by a certified assembler using a certified method and verification means provided by the modular kit manufacturer and one or more well know third-party certifiers, meets the requirements local, national and international electrical codes and is eligible for the third-party's certification mark.

Abstract: Embodiments provided herein are directed to an improved way to access and increase the area of an electrical distribution device provided for cable pulling and cabling. A rotatable section, on which several electrical components of the electrical distribution device are attached, can be rotated away from the cabling area as a single unit. This permits easier access to the cabling area and increases the size of the cabling area, which results in less time required to pull cables and wire the electrical components of the electrical distribution device.

Abstract: Apparatus and method for a modular switchboard provide an adjustable length bus bridge for electrically connecting two adjacent switchboards, where the length of the bus bridge can be adjusted on site if needed. The bus bridge comprises a first set of busbars, each being electrically insulated from one another, and a second set of busbars, each being electrically insulated from one another. The first and second sets of busbars are arranged such that the busbars in the first set of busbars and the busbars in the second set of busbars are slidable relative to one another to adjust a length of the bus bridge. A longitudinal slot is formed in each busbar in either the first or the second set of busbars, or both, to accommodate a through bolt in the bus bridge when the first and second set of busbars slide relative to one another.

Abstract: A bus assembly and bus assembly connector include one or more insulated members that have axial sleeves that fit within one another during assembly to form a nesting arrangement. The nesting arrangement of the axial sleeves allow reduction of the overall size of the bus assembly connector while satisfying power rating standards and dielectric clearances as well as allowing bolting of the bus assembly to thereby clamp and secure the bus assembly. The axial sleeves can be distinctively designed such that the phase members must be assembled in a predetermined order, with no components being omitted, to form the bus assembly connector or clamp the bus assembly.

Abstract: A joint pack includes one or more phase members that utilize integrated standoff spacers that protrude and come into contact with opposing conductor plates to maintain a phase space between the phase members. The spacers are located along the insulating plates of the phase members away from the phase member's axial sleeves and protrude through apertures in the conductor plates disposed on the phase members, in which the standoff spacers also provide a barrier that prevents phase-conductors from being inserted too far within the phase space. The phase members include axial sleeves that fit within one another during assembly to form a nesting arrangement, thereby reducing the overall size of the joint pack while satisfying standards. The axial sleeves can be distinctively designed such that the phase members must be assembled in a predetermined order, with no components being omitted, to form the joint pack.

Abstract: A bus assembly and bus assembly connector include one or more insulated members that have axial sleeves that fit within one another during assembly to form a nesting arrangement. The nesting arrangement of the axial sleeves allow reduction of the overall size of the bus assembly connector while satisfying power rating standards and dielectric clearances as well as allowing bolting of the bus assembly to thereby clamp and secure the bus assembly. The axial sleeves can be distinctively designed such that the phase members must be assembled in a predetermined order, with no components being omitted, to form the bus assembly connector or clamp the bus assembly.

Abstract: A joint pack includes one or more phase members that utilize integrated standoff spacers that protrude and come into contact with opposing conductor plates to maintain a phase space between the phase members. The spacers are located along the insulating plates of the phase members away from the phase member's axial sleeves and protrude through apertures in the conductor plates disposed on the phase members, in which the standoff spacers also provide a barrier that prevents phase-conductors from being inserted too far within the phase space. The phase members include axial sleeves that fit within one another during assembly to form a nesting arrangement, thereby reducing the overall size of the joint pack while satisfying standards. The axial sleeves can be distinctively designed such that the phase members must be assembled in a predetermined order, with no components being omitted, to form the joint pack.

Abstract: A plug-in outlet for a busway system has a base mounted to a busway housing, wherein the base has an opening into which an electrical stab extends from a busbar of the busway system. A fingerguard is mounted to the base into the opening and has self-aligning features achieved by built-in tolerances. The fingerguard includes a central barrier for shielding a leading end of the electrical stab, the central barrier extending from side walls of the fingerguard and being separated by respective gaps from a top wall and a bottom wall of the fingerguard. The fingerguard further includes a top back latch and a bottom back latch for attaching the fingerguard to the stab, the top back latch and the bottom back latch extending from respective ones of the top wall and the bottom wall toward the stab and retaining the stab toward the fingerguard.

Abstract: A plug-in outlet for a busway system has a base mounted to a busway housing, wherein the base has an opening into which an electrical stab extends from a busbar of the busway system. A fingerguard is mounted to the base into the opening and has self-aligning features achieved by built-in tolerances. The fingerguard includes a central barrier for shielding a leading end of the electrical stab, the central barrier extending from side walls of the fingerguard and being separated by respective gaps from a top wall and a bottom wall of the fingerguard. The fingerguard further includes a top back latch and a bottom back latch for attaching the fingerguard to the stab, the top back latch and the bottom back latch extending from respective ones of the top wall and the bottom wall toward the stab and retaining the stab toward the fingerguard.

Abstract: An electrical busway system includes a joint assembly having a joint housing with an upper plate and a lower plate. The lower plate has a nut-receiving hole. A top mounted bolt secures a plurality of electrical conductors to the joint housing, the conductors being mounted between the upper plate and the lower plate. A nut is connected to a threaded end of the bolt, the nut having a main body positioned at least in part within the nut-receiving hole and a tightening end positioned outside the nut-receiving sleeve. A nut gasket is provided for the main body of the nut within the nut-receiving hole to form a sealed zone for preventing water entry into the joint housing.