Abstract: Devices, systems, and methods for dissipating heat generated from an electrical current carrying device are provided herein. The disclosed concept provides a dielectric heat path device that assists in heat dissipation of an electrical current carrying device by transferring heat from one end of the device to another. The disclosed concept also provides systems that communicate heat generated by an electrical device to a thermally grounded secondary device through a dielectric heat path device to dissipate heat.

Abstract: Devices, systems, and methods for dissipating heat generated from an electrical current carrying device are provided herein. The disclosed concept provides a dielectric heat path device that assists in heat dissipation of an electrical current carrying device by transferring heat from one end of the device to another. The disclosed concept also provides systems that communicate heat generated by an electrical device to a thermally grounded secondary device through a dielectric heat path device to dissipate heat.

Abstract: Loadcenters with an enclosure having an interior compartment and a back wall that includes at least one lance, typically a plurality of longitudinally spaced apart lances that project inwardly toward a front of the enclosure. Each lance comprises an aperture. The loadcenters also include a back pan assembly in the interior compartment. The back pan assembly has at least one latch, typically plurality of longitudinally spaced apart latches, each latch with a leg that extend through the aperture of the aligned lance to attach the back pan assembly to the backwall.

Abstract: Loadcenters with an enclosure having an interior compartment and a back wall that includes at least one lance, typically a plurality of longitudinally spaced apart lances that project inwardly toward a front of the enclosure. Each lance comprises an aperture. The loadcenters also include a back pan assembly in the interior compartment. The back pan assembly has at least one latch, typically plurality of longitudinally spaced apart latches, each latch with a leg that extend through the aperture of the aligned lance to attach the back pan assembly to the backwall.

Abstract: Loadcenters with an enclosure having an interior compartment and a back wall that include at least one lance, typically a plurality of longitudinally spaced apart lances that project inwardly toward a front of the enclosure. Each lance comprises an aperture. The loadcenters also include a back pan assembly in the interior compartment. The back pan assembly has at least one latch, typically plurality of longitudinally spaced apart latches, each latch with a legs that extend through the aperture of the aligned lance to attach the back pan assembly to the backwall.

Abstract: Devices, systems, and methods for dissipating heat generated from an electrical current carrying device are provided herein. The disclosed concept provides a dielectric heat path device that assists in heat dissipation of an electrical current carrying device by transferring heat from one end of the device to another. The disclosed concept also provides systems that communicate heat generated by an electrical device to a thermally grounded secondary device through a dielectric heat path device to dissipate heat.

Abstract: Loadcenters with an enclosure having an interior compartment and a back wall that include at least one lance, typically a plurality of longitudinally spaced apart lances that project inwardly toward a front of the enclosure. Each lance comprises an aperture. The loadcenters also include a back pan assembly in the interior compartment. The back pan assembly has at least one latch, typically plurality of longitudinally spaced apart latches, each latch with a legs that extend through the aperture of the aligned lance to attach the back pan assembly to the backwall.

Abstract: Devices, systems, and methods for dissipating heat generated from an electrical current carrying device are provided herein. The disclosed concept provides a dielectric heat path device that assists in heat dissipation of an electrical current carrying device by transferring heat from one end of the device to another. The disclosed concept also provides systems that communicate heat generated by an electrical device to a thermally grounded secondary device through a dielectric heat path device to dissipate heat.

Abstract: In-wall mountable housings include a back, top, bottom and laterally opposing first and second sidewalls that form an interior compartment. The sidewalls, top and bottom terminate at a front of the housing. The housing also includes first and second tabs attached to each of the first and second sidewalls. The first and the second tabs have one side that is integrally attached to the first or second sidewalls and three sides that are detached or detachable therefrom so that the first and second tabs can pivot outward to be perpendicular to the sidewalls. When not used, the tabs are flush with the sidewalls or angle inward into the housing. The first tab pivots outward to be spaced apart a first defined distance from the front of the housing and the second tab pivots outward to be spaced apart a second defined distance from the front of the housing.

Abstract: A set of circuit interrupters and electrical enclosures that are configured to permit an electrical enclosure having a current rating to have connected therewith a circuit interrupter having a current carrying rating no greater than the current rating. However, a current interrupter having a current carrying rating less than the current rating of the electrical enclosure potentially may be connected therewith. Such electrical interruption equipment employs threaded studs on bus bars that are of varying sizes and/or are separated by varying distances in order to resist an electrical enclosure having a current rating from being electrically connected with a circuit interrupter having a current carrying rating greater than the current rating.

Abstract: Devices, systems, and methods for dissipating heat generated from an electrical current carrying device are provided herein. The disclosed concept provides a dielectric heat path device that assists in heat dissipation of an electrical current carrying device by transferring heat from one end of the device to another. The disclosed concept also provides systems that communicate heat generated by an electrical device to a thermally grounded secondary device through a dielectric heat path device to dissipate heat.

Abstract: A set of circuit interrupters and electrical enclosures that are configured to permit an electrical enclosure having a current rating to have connected therewith a circuit interrupter having a current carrying rating no greater than the current rating. However, a current interrupter having a current carrying rating less than the current rating of the electrical enclosure potentially may be connected therewith. Such electrical interruption equipment employs threaded studs on bus bars that are of varying sizes and/or are separated by varying distances in order to resist an electrical enclosure having a current rating from being electrically connected with a circuit interrupter having a current carrying rating greater than the current rating.

Abstract: A set of circuit interrupters and electrical enclosures that are configured to permit an electrical enclosure having a current rating to have connected therewith a circuit interrupter having a current carrying rating no greater than the current rating. However, a current interrupter having a current carrying rating less than the current rating of the electrical enclosure potentially may be connected therewith. Such electrical interruption equipment employs threaded studs on bus bars that are of varying sizes and/or are separated by varying distances in order to resist an electrical enclosure having a current rating from being electrically connected with a circuit interrupter having a current carrying rating greater than the current rating.

Abstract: Plug-on neutral circuit breakers include an AFCI OR GFCI circuit breaker housing, a neutral conductor with an external end portion extending from the AFCI/GFCI circuit breaker housing, and a clip assembly attached to the neutral conductor at a specific length configured to align with the loadcenter neutral bar location. The clip assembly includes a conductive clip with downwardly extending, spaced apart legs. The legs are sized and configured to clamp against opposing sides of a neutral bar.

Abstract: A set of circuit interrupters and electrical enclosures that are configured to permit an electrical enclosure having a current rating to have connected therewith a circuit interrupter having a current carrying rating no greater than the current rating. However, a current interrupter having a current carrying rating less than the current rating of the electrical enclosure potentially may be connected therewith. Such electrical interruption equipment employs threaded studs on bus bars that are of varying sizes and/or are separated by varying distances in order to resist an electrical enclosure having a current rating from being electrically connected with a circuit interrupter having a current carrying rating greater than the current rating.

Abstract: Plug-on neutral circuit breakers include an AFCI OR GFCI circuit breaker housing, a neutral conductor with an external end portion extending from the AFCI/GFCI circuit breaker housing, and a clip assembly attached to the neutral conductor at a specific length configured to align with the loadcenter neutral bar location. The clip assembly includes a conductive clip with downwardly extending, spaced apart legs. The legs are sized and configured to clamp against opposing sides of a neutral bar.