Abstract: A large-scale, capacitor-based electrical energy storage and distribution system capable of effectuating load-leveling during periods of peak demand on a utility, and of effectuating a cost savings associated with the purchase of electrical energy. A capacitor or multitude of capacitors may be charged with electrical energy produced by the utility, such as during periods of low demand or low cost, and discharged during periods of high electrical energy consumption or high electrical energy cost. One or more capacitors may be located at a consumer's residence or business. Alternatively, a farm of capacitors may be provided at or near a utility, or at or near a location experiencing high demand. In another embodiment, one or more capacitors may be located in or on a vehicle, such as an automobile, a truck, or a train of a light rail system.

Abstract: A system and method for creating capacitor-based electrical energy storage modules and electrical energy storage systems assembled therefrom. Submodules having a plurality of capacitors capable of storing electrical energy are used in different combinations to create electrical energy storage modules. Preferably, a number of submodules are placed into an enclosure or cabinet, whereafter the submodules are placed in electrical communication. The number of submodules installed in an enclosure is determined by the power output desired, and the space constraints of the area in which the enclosure will be located. One enclosure of one or more submodules, or a plurality of interconnected enclosures of one or more submodules, may form an electrical energy storage module. The module may be designed to output either DC or AC electric power, and may be equipped with a power conversion system and/or communication and control electronics to control the charging and discharging thereof.

Abstract: A system and method for creating capacitor-based electrical energy storage modules and electrical energy storage systems assembled therefrom. Submodules having a plurality of capacitors capable of storing electrical energy are used in different combinations to create electrical energy storage modules. Preferably, a number of submodules are placed into an enclosure or cabinet, whereafter the submodules are placed in electrical communication. The number of submodules installed in an enclosure is determined by the power output desired, and the space constraints of the area in which the enclosure will be located. One enclosure of one or more submodules, or a plurality of interconnected enclosures of one or more submodules, may form an electrical energy storage module. The module may be designed to output either DC or AC electric power, and may be equipped with a power conversion system and/or communication and control electronics to control the charging and discharging thereof.

Abstract: A large-scale, capacitor-based electrical energy storage and distribution system capable of effectuating load-leveling during periods of peak demand on a utility, and of effectuating a cost savings associated with the purchase of electrical energy. A capacitor or multitude of capacitors may be charged with electrical energy produced by the utility, such as during periods of low demand or low cost, and discharged during periods of high electrical energy consumption or high electrical energy cost. One or more capacitors may be located at a consumer's residence or business. Alternatively, a farm of capacitors may be provided at or near a utility, or at or near a location experiencing high demand. In another embodiment, one or more capacitors may be located in or on a vehicle, such as an automobile, a truck, or a train of a light rail system.

Abstract: A large scale, capacitor-based electrical energy storage and distribution system capable of effectuating load-leveling during periods of peak demand on a utility. A capacitor or multitude of capacitors may be charged with electrical energy produced by the utility during periods of low demand, such as the evening hours, and discharged during periods of high electrical energy consumption to help reduce demand on the utility. One or more capacitors may be located at a consumer's residence or business for providing at least a portion of the consumer's electrical power requirements. Alternatively, a farm of capacitors may be provided at or near a utility, or at or near a location experiencing high demand, such that electrical energy stored in the capacitors can be discharged into the utility's distribution grid to increase the amount of electrical energy available for use.

Abstract: A system and method for creating capacitor-based electrical energy storage modules and electrical energy storage systems assembled therefrom. Submodules having a plurality of capacitors capable of storing electrical energy are used in different combinations to create electrical energy storage modules. Preferably, a number of submodules are placed into corresponding receptacles within an enclosure or cabinet, wherein the submodules become electrically connected. The number of submodules installed in a cabinet is determined by the power output desired, and the space constraints of the area in which the cabinet will be located. One cabinet of one or more submodules, or a plurality of interconnected cabinets of one or more submodules, may form an electrical energy storage module. The module may be designed to output either DC or AC electric power, and is preferably equipped with a power conversion system and/or communication and control electronics to control the charging and discharging thereof.

Abstract: A large scale, capacitor-based electrical energy storage and distribution system capable of effectuating load-leveling during periods of peak demand on a utility. A capacitor or multitude of capacitors may be charged with electrical energy produced by the utility during periods of low demand, such as the evening hours, and discharged during periods of high electrical energy consumption to help reduce demand on the utility. One or more capacitors may be located at a consumer's residence or business for providing at least a portion of the consumer's electrical power requirements. Alternatively, a farm of capacitors may be provided at or near a utility, or at or near a location experiencing high demand, such that electrical energy stored in the capacitors can be discharged into the utility's distribution grid to increase the amount of electrical energy available for use.