Abstract: An electrode having a planar electrode body with a plurality of hexagonally shaped through-holes formed therein. The planar electrode body is configured for use in a polar, protic, or aprotic solvent of a Hydro-Pyroelectrodynamic (“H-PED”) energy storage device. The electrode may be constructed using a method that includes applying a layer of graphene to an outer surface of the planar electrode body, and annealing the outer surface of the planar electrode body after the layer of graphene has been applied thereto.

Abstract: A circuit for use with an external power source and at least one load. The circuit includes a Hydro-Pyroelectrodynamic (“H-PED”) storage/capture device (“SCD”), a plurality of contacts, and a recharging device. The H-PED SCD stores electrical energy and is configured to discharge power to at least one output contact of the plurality of contacts. The plurality of contacts also include an input contact configured to be connected to the external power source. The recharging device is configured to be powered by the external power source when the external power source is connected to the input contact and supplies power thereto. The recharging device is operable to charge the H-PED SCD when powered by the external power source. The recharging device may be an infrared light emitting diode configured to generate incident infrared radiation operable to charge the H-PED SCD.

Abstract: An electrode having a planar electrode body with a plurality of hexagonally shaped through-holes formed therein. The planar electrode body is configured for use in a polar, protic, or aprotic solvent of a Hydro-Pyroelectrodynamic (“H-PED”) energy storage device. The electrode may be constructed using a method that includes applying a layer of graphene to an outer surface of the planar electrode body, and annealing the outer surface of the planar electrode body after the layer of graphene has been applied thereto.

Abstract: A circuit for use with an external power source and at least one load. The circuit includes a Hydro-Pyroelectrodynamic (“H-PED”) storage/capture device (“SCD”), a plurality of contacts, and a recharging device. The H-PED SCD stores electrical energy and is configured to discharge power to at least one output contact of the plurality of contacts. The plurality of contacts also include an input contact configured to be connected to the external power source. The recharging device is configured to be powered by the external power source when the external power source is connected to the input contact and supplies power thereto. The recharging device is operable to charge the H-PED SCD when powered by the external power source. The recharging device may be an infrared light emitting diode configured to generate incident infrared radiation operable to charge the H-PED SCD.

Abstract: A novel electrical energy storage system that includes one or more cells. Each cell includes a polar liquid, a negatively-charged-surface electrode, and a positively-charged surface electrode. An interstitial space is defined between the electrodes. The negatively-charged-surface electrode has a hydrophilic surface adjacent the interstitial space. The liquid includes a self-organizing zone in the interstitial space. Each cell includes means to increase and/or decrease electrical potential between the electrodes. Increasing the electrical potential between the electrodes induces expansion of the self-organizing zone in the interstitial space. Decreasing electrical potential between the electrodes (e.g., via current discharge through an external load) causes a contraction of the self-organizing zone.

Abstract: A novel electrical energy storage system that includes one or more cells. Each cell includes a polar liquid, a negatively-charged-surface electrode, and a positively-charged surface electrode. An interstitial space is defined between the electrodes. The negatively-charged-surface electrode has a hydrophilic surface adjacent the interstitial space. The liquid includes a self-organizing zone in the interstitial space. Each cell includes means to increase and/or decrease electrical potential between the electrodes. Increasing the electrical potential between the electrodes induces expansion of the self-organizing zone in the interstitial space. Decreasing electrical potential between the electrodes (e.g., via current discharge through an external load) causes a contraction of the self-organizing zone.