Abstract: An energy storage system includes an energy storage component. It further includes heat generating electronics. It further includes a fluid circulator that transfers fluid between the energy storage component and the heat generating electronics. The circulator is controlled to alternatively transfer fluid from the battery to the heat generating electronics or from the heat generating electronics to the energy storage component based at least in part on a thermal state of the energy storage system.

Abstract: An intelligent relay package is disclosed, comprising: a relay configured to control delivery of current to a load, wherein the relay comprises a set of contacts; and a set of rigid busbars coupled to the set of contacts of the relay, wherein the set of rigid busbars is configured to transfer heat generated due to contact resistance away from the set of contacts and to a set of wires coupled to the set of rigid busbars, wherein the intelligent relay package is sized to fit within a single slot of a load tray.

Abstract: In various embodiments, an energy storage mounting system includes an inverter wall bracket mounted to a wall, wherein an inverter is coupled to the inverter wall bracket. The system includes a battery wall bracket to which a battery block is coupled. The battery wall bracket interfaces with an auxiliary bracket that is mounted to the wall, is vertically translatable relative to the auxiliary bracket, and is at least in part ground-supported. The battery block is electrically connected to the inverter.

Abstract: An energy storage assembly includes a vertical stack of substantially planar modules. Each module comprises a plurality of energy storage components and a thermally conductive shell comprising a shell top, a shell bottom, shell sides, a shell front, and a shell rear.

Abstract: In various embodiments, an inductor thermal management system includes an inductor, and a heat sink. The heat sink includes a cavity and a spacer adapted to situate the inductor within the cavity and separate the inductor from at least one wall of the cavity such that heat is transferred from the inductor into the heat sink multi-directionally.

Abstract: A controllable main breaker includes a main breaker sized to fit within an existing panel slot of an electrical panel. The main breaker comprises a trigger to open the main breaker in response to a thermal fault or overcurrent event. The controllable main breaker further includes an auxiliary shell sized to fit within at least one adjacent breaker slot. The auxiliary shell includes a controllable actuator that mechanically opens the main breaker.

Abstract: A system that includes a wettable thermal insulator, a phase change material, and a flexible pouch. In the event a thermal event occurs, the phase change material changes from a liquid state to a gaseous state. The flexible pouch is configured to envelope the wettable thermal insulator and the phase change material in the liquid state.

Abstract: An energy storage system includes an energy storage component. It further includes heat generating electronics. It further includes a fluid circulator that transfers fluid between the energy storage component and the heat generating electronics. The circulator is controlled to alternatively transfer fluid from the battery to the heat generating electronics or from the heat generating electronics to the energy storage component based at least in part on a thermal state of the energy storage system.

Abstract: In various embodiments, an inductor thermal management system includes an inductor, and a heat sink. The heat sink includes a cavity and a spacer adapted to situate the inductor within the cavity and separate the inductor from at least one wall of the cavity such that heat is transferred from the inductor into the heat sink multi-directionally.

Abstract: A controllable main breaker includes a main breaker sized to fit within an existing panel slot of an electrical panel. The main breaker comprises a trigger to open the main breaker in response to a thermal fault or overcurrent event. The controllable main breaker further includes an auxiliary shell sized to fit within at least one adjacent breaker slot. The auxiliary shell includes a controllable actuator that mechanically opens the main breaker.

Abstract: A wiring harness for a battery and inverter system includes a main cable. It further includes an inverter connector configured to plug the main cable into an inverter module. It further includes a first spur of the main cable terminating in a first-type battery device connector. It further includes a second spur of the main cable terminating in a second type battery device connector.

Abstract: In various embodiments, an energy storage mounting system includes an inverter wall bracket mounted to a wall, wherein an inverter is coupled to the inverter wall bracket. The system includes a battery wall bracket to which a battery block is coupled. The battery wall bracket interfaces with an auxiliary bracket that is mounted to the wall, is vertically translatable relative to the auxiliary bracket, and is at least in part ground-supported. The battery block is electrically connected to the inverter.

Abstract: A system that includes a wettable thermal insulator, a phase change material, and a flexible pouch. In the event a thermal event occurs, the phase change material changes from a liquid state to a gaseous state. The flexible pouch is configured to envelope the wettable thermal insulator and the phase change material in the liquid state.

Abstract: A controllable main breaker includes a main breaker sized to fit within an existing panel slot of an electrical panel. The main breaker comprises a trigger to open the main breaker in response to a thermal fault or overcurrent event. The controllable main breaker further includes an auxiliary shell sized to fit within at least one adjacent breaker slot. The auxiliary shell includes a controllable actuator that mechanically opens the main breaker.

Abstract: 1. An inverter device is disclosed, including; an enclosure comprising a plurality of sides; an antenna port in a first side of the plurality of sides; and an antenna pass through module comprising: an exterior connector assembly comprising a plurality of pins and a base, wherein the plurality of pins are operable to be connected to respective ones of a plurality of antennas, wherein the plurality of pins passes through the antenna port to an exterior of the enclosure, wherein the base of the exterior connector assembly is sealed against the first side on an interior of the enclosure to provide ingress protection; and an interior antenna circuit configured to: terminate connections from a plurality of transceivers within the interior of the enclosure; and select antenna signals from at least the plurality of pins on the exterior connector assembly to route the plurality of transceivers.

Abstract: In various embodiments, an energy storage mounting system includes an inverter wall bracket mounted to a wall, wherein an inverter is coupled to the inverter wall bracket. The system includes a battery wall bracket to which a battery block is coupled. The battery wall bracket interfaces with an auxiliary bracket that is mounted to the wall, is vertically translatable relative to the auxiliary bracket, and is at least in part ground-supported. The battery block is electrically connected to the inverter.

Abstract: An energy storage system includes an energy storage component. It further includes heat generating electronics. It further includes a fluid circulator that transfers fluid between the energy storage component and the heat generating electronics. The circulator is controlled to alternatively transfer fluid from the battery to the heat generating electronics or from the heat generating electronics to the energy storage component based at least in part on a thermal state of the energy storage system.

Abstract: An insulating enclosure is disclosed, including: an opening in a side of the insulating enclosure, wherein the opening provides a conductor within a conduit passage into an interior of the insulating enclosure, wherein the conductor is to carry current from the inverter module, wherein a conductive sheath of the conduit is mechanically connected to the insulating enclosure via the opening; and a conductive liner, wherein the conductive liner provides a ground plane for components within the insulating enclosure, wherein the conductive liner covers at least a portion of the side of the insulating enclosure, and wherein the conductive liner is electrically connected to the conductive sheath of the conduit.

Abstract: A wiring harness for a battery and inverter system includes a main cable. It further includes an inverter connector configured to plug the main cable into an inverter module. It further includes a first spur of the main cable terminating in a first-type battery device connector. It further includes a second spur of the main cable terminating in a second type battery device connector.

Abstract: 1. An inverter device is disclosed, including; an enclosure comprising a plurality of sides; an antenna port in a first side of the plurality of sides; and an antenna pass through module comprising: an exterior connector assembly comprising a plurality of pins and a base, wherein the plurality of pins are operable to be connected to respective ones of a plurality of antennas, wherein the plurality of pins passes through the antenna port to an exterior of the enclosure, wherein the base of the exterior connector assembly is sealed against the first side on an interior of the enclosure to provide ingress protection; and an interior antenna circuit configured to: terminate connections from a plurality of transceivers within the interior of the enclosure; and select antenna signals from at least the plurality of pins on the exterior connector assembly to route the plurality of transceivers.