Abstract: An electrical joint is provided. The electrical joint includes a first conductive component, a second conductive component, and a thermal cooling interface positioned between the first and second conductive components, the thermal cooling interface including a base plate coupled to the first conductive component, and a plurality of walls extending orthogonally from the base plate towards the second conductive component, the plurality of walls defining a plurality of cooling channels that channel air therethrough to facilitate cooling the first and second conductive components, wherein the first conductive component, the thermal cooling interface, and the second conductive component are electrically coupled in series.

Abstract: An electrical joint is provided. The electrical joint includes a first conductive component, a second conductive component, and a thermal cooling interface positioned between the first and second conductive components, the thermal cooling interface including a base plate coupled to the first conductive component, and a plurality of walls extending orthogonally from the base plate towards the second conductive component, the plurality of walls defining a plurality of cooling channels that channel air therethrough to facilitate cooling the first and second conductive components, wherein the first conductive component, the thermal cooling interface, and the second conductive component are electrically coupled in series.

Abstract: A current carrying system for use in transporting electrical current between a plurality of electrical devices is provided. The current carrying system includes a busbar having a first axial end, a second axial end, an electrically conductive shaft extending from the first axial end to the second axial end, and at least one cooling feature defined in at least a portion of the electrically conductive shaft. The current carrying system also includes a casing that defines a busbar channel configured to receive the busbar such that the casing at least partially circumscribes the busbar. The current carrying system also includes an air vent defined by the at least one cooling feature and the casing, wherein the air vent is in flow communication with ambient air, and the cooling feature is configured to facilitate a flow of air from the ambient air through the air vent.

Abstract: An electrical joint is provided. The electrical joint includes a first conductive component, a second conductive component, and a thermal cooling interface positioned between the first and second conductive components, the thermal cooling interface including a base plate coupled to the first conductive component, and a plurality of walls extending orthogonally from the base plate towards the second conductive component, the plurality of walls defining a plurality of cooling channels that channel air therethrough to facilitate cooling the first and second conductive components, wherein the first conductive component, the thermal cooling interface, and the second conductive component are electrically coupled in series.

Abstract: Electrical equipment that includes a cabinet comprising a plurality of walls is provided. The cabinet is disposed around a plurality of electric components such as conductors. Further, the electrical equipment also includes at least one barrier. The barrier is disposed in the cabinet and spaced apart from the conductor by a spacing distance to define a channel within the cabinet for air to flow between the barrier and the conductor. The barrier is placed such that a portion of the barrier is coupled to one of the plurality of walls of the electric cabinets.

Abstract: A current carrying system for use in transporting electrical current between a plurality of electrical devices is provided. The current carrying system includes a busbar having a first axial end, a second axial end, an electrically conductive shaft extending from the first axial end to the second axial end, and at least one cooling feature defined in at least a portion of the electrically conductive shaft. The current carrying system also includes a casing that defines a busbar channel configured to receive the busbar such that the casing at least partially circumscribes the busbar. The current carrying system also includes an air vent defined by the at least one cooling feature and the casing, wherein the air vent is in flow communication with ambient air, and the cooling feature is configured to facilitate a flow of air from the ambient air through the air vent.

Abstract: A current carrying system for use in transporting electrical current between a plurality of electrical devices is provided. The current carrying system includes a busbar having a first axial end, a second axial end, an electrically conductive shaft extending from the first axial end to the second axial end, and at least one cooling feature defined in at least a portion of the electrically conductive shaft. The current carrying system also includes a casing that defines a busbar channel configured to receive the busbar such that the casing at least partially circumscribes the busbar. The current carrying system also includes an air vent defined by the at least one cooling feature and the casing, wherein the air vent is in flow communication with ambient air, and the cooling feature is configured to facilitate a flow of air from the ambient air through the air vent.

Abstract: A latch for an electrical device enclosure, wherein the latch comprises a moveable member operable in response to high pressure conditions inside the enclosure, and is configured to prevent opening of the enclosure in the event of high pressure conditions inside the enclosure.

Abstract: Electrical equipment that includes a cabinet comprising a plurality of walls is provided. The cabinet is disposed around a plurality of electric components such as conductors. Further, the electrical equipment also includes at least one barrier. The barrier is disposed in the cabinet and spaced apart from the conductor by a spacing distance to define a channel within the cabinet for air to flow between the barrier and the conductor. The barrier is placed such that a portion of the barrier is coupled to one of the plurality of walls of the electric cabinets.

Abstract: A current carrying system for use in transporting electrical current between a plurality of electrical devices is provided. The current carrying system includes a busbar having a first axial end, a second axial end, an electrically conductive shaft extending from the first axial end to the second axial end, and at least one cooling feature defined in at least a portion of the electrically conductive shaft. The current carrying system also includes a casing that defines a busbar channel configured to receive the busbar such that the casing at least partially circumscribes the busbar. The current carrying system also includes an air vent defined by the at least one cooling feature and the casing, wherein the air vent is in flow communication with ambient air, and the cooling feature is configured to facilitate a flow of air from the ambient air through the air vent.

Abstract: A heat transfer system includes an electrical distribution cabinet extending about at least one current-carrying conductor. The heat transfer system also includes at least one electrically-insulating and thermally-conducting device coupled to the at least one current-carrying conductor. The heat transfer system further includes at least one heat pipe coupled to the at least one electrically-insulating and thermally-conducting device. The heat pipe is also thermally coupled to at least a portion of the electrical distribution cabinet.

Abstract: An electrical distribution system includes at least one circuit breaker device having an electrical interruption system provided with an electrical pathway, at least one micro electro-mechanical switch (MEMS) device electrically coupled in the electrical pathway, at least one hybrid arcless limiting technology (HALT) connection, and at least one control connection. A HALT circuit member is electrically coupled to HALT connection on the circuit breaker device and a controller is electrically coupled to the control connection on the circuit breaker device. The controller is configured and disposed to selectively connect the HALT circuit member and the at least one circuit breaker device via the HALT connection to control electrical current flow through the at least one circuit breaker device.

Abstract: A heat transfer system includes an electrical distribution cabinet extending about at least one current-carrying conductor. The heat transfer system also includes at least one electrically-insulating and thermally-conducting device coupled to the at least one current-carrying conductor. The heat transfer system further includes at least one heat pipe coupled to the at least one electrically-insulating and thermally-conducting device. The heat pipe is also thermally coupled to at least a portion of the electrical distribution cabinet.

Abstract: An apparatus for a photovoltaic system in which multiple poles are connectable with multiple fuses is provided. The apparatus includes a rotor configured to occupy at least first and second rotational angles, a disconnect unit including a plurality of interrupter housings respectively configured to connect at least one of the multiple poles with at least one of the multiple fuses in accordance with a rotational angle of the rotor, at least one of the plurality of the interrupter housings being mutually connectable, a transmission unit disposed and configured to electrically combine the multiple poles into a lesser number of the multiple poles, a housing sized to house the rotor, the disconnect unit and the transmission unit and an actuator arm disposed at the exterior of the housing and configured to be selectively actuated to cause the rotor to occupy the at least one of the rotational angles.

Abstract: An electrical distribution system includes at least one circuit breaker device having an electrical interruption system provided with an electrical pathway, at least one micro electro-mechanical switch (MEMS) device electrically coupled in the electrical pathway, at least one hybrid arcless limiting technology (HALT) connection, and at least one control connection. A HALT circuit member is electrically coupled to HALT connection on the circuit breaker device and a controller is electrically coupled to the control connection on the circuit breaker device. The controller is configured and disposed to selectively connect the HALT circuit member and the at least one circuit breaker device via the HALT connection to control electrical current flow through the at least one circuit breaker device.

Abstract: An electrical device includes an enclosure having an interior surface, at least one bus bar, and an element enclosing at least a portion of the bus bar, wherein the element includes a first surface contacting the interior surface and is configured to transfer heat from the bus bar to the enclosure and configured to provide electrical isolation between the enclosure and the bus bar.

Abstract: An electrical device includes an enclosure having an interior surface, at least one bus bar, and an element enclosing at least a portion of the bus bar, wherein the element includes a first surface contacting the interior surface and is configured to transfer heat from the bus bar to the enclosure and configured to provide electrical isolation between the enclosure and the bus bar.

Abstract: A panel board retrofit kit, and method of selecting a panelboard retrofit kit, for replacing a panel board having a switching device in an enclosure is disclosed. The panel board retrofit kit has a first dead front plate having a first aperture, and a second dead front plate having a second aperture. The second aperture of the second panel board dead front plate is configurable to overlap at least a portion of said first aperture of said first dead front plate. The disclosed panelboard retrofit kit and method enable replacement of an installed panel board without removing or replacing the panel board enclosure.

Abstract: A latch for an electrical device enclosure, wherein the latch comprises a moveable member operable in response to high pressure conditions inside the enclosure, and is configured to prevent opening of the enclosure in the event of high pressure conditions inside the enclosure.

Abstract: A panel board retrofit kit, and method of selecting a panelboard retrofit kit, for replacing a panel board having a switching device in an enclosure is disclosed. The panel board retrofit kit has a first dead front plate having a first aperture, and a second dead front plate having a second aperture. The second aperture of the second panel board dead front plate is configurable to overlap at least a portion of said first aperture of said first dead front plate. The disclosed panelboard retrofit kit and method enable replacement of an installed panel board without removing or replacing the panel board enclosure.