TECHNOLOGY FOCUS - POLYMERS - Preferred Material: In the dielectric material, the organic is selected from phthalocyanine, polycyclic aromatic hydrocarbon, pyrene benzoquinoline, fluorescein, carbonyl, unsaturated ketone, anthrone, uranine, rhodamine, and combinations. The organometallic is selected from phthalocyanine, polycyclic aromatic hydrocarbon, pyrene benzoquinoline, fluorescein, carbonyl, unsaturated ketone, anthrone, uranine, rhodamine, and combinations. One of the organic and the organometallic is selected from copper-phthalocyanine, zinc-phthalocyanine, magnesium-phthalocyanine, nickel-phthalocyanine, and combinations. The organic and the organometallic materials are in particulates form having an average particle size between 0.1 and 10 micron and are dispersed in an organic vehicle. The organic vehicle comprises a solvent and a resin having high polarity. The continuous phase material is selected from phthalocyanine, polycyclic aromatic hydrocarbon, pyrene benzoquinoline, fluorescein, carbonyl, unsaturated ketone, anthrone, uranine, rhodamine, compounds, copper-phthalocyanine, zinc-phthalocyanine, magnesium-phthalocyanine, nickel-phthalocyanine, and combinations. The continuous phase material comprises a second dielectric material in dispersed form, where the second dielectric material is selected from barium titanate (BaTiO3), ferroelectric, relaxor dielectric, alumina, silica, activated silica, aluminosilicates, alkali aluminosilicates, alkaline aluminosilicates, zeolites, bismaleimide-triazine, cyanate ester, epoxy, silicones, polystyrenes, or combinations. The dielectric material comprises at least two layers disposed one on top of the other, each of the layers being formed of a material selected from organic, organometallic, and combinations, having delocalized electrons. The dielectric material contains at least two layers, each layer formed of material from organic, organometallic, or combinations, and further comprises an inner layer disposed between each of the at least two layers. Alternatively, the dielectric material comprises: at least one layer of a substantially continuous phase material selected from an organic, organometallic, or combination in which the substantially continuous phase material has a dielectric relaxation time of between about ten minutes to about 100 hours. In a second alternative case, the dielectric material comprises: at least one layer of a substantially continuous phase material selected from an organic, organometallic, or combination and having a dielectric constant of between about 2000 and about 100,000. Preferred Capacitor: In the capacitor, the electrodes comprise conductive materials selected from metals, metal alloys, carbon base conductors, graphene, activated carbon, carbon-nano-tubes, conductive polymers, and organic polymers doped with carbon base conductors and metals, and combinations. The electrodes have high surface area with pore sizes of between 50-10,000 nm. The electrodes have high surface area and are doped with a chelating agent. The capacitor has at least one interface layer disposed between at one of the electrodes and the dielectric, where the capacitor has an interface layer between the dielectric material and the electrode, where the interface layer at least partially covers the electrode. The capacitor has an interface layer between the dielectric material and the electrode, where the interface layer completely covers the electrode, where the interface layer comprises a viscous organic based material from low to high molecular weight and having a high polarity. Alternatively, the capacitor comprises two spaced-apart electrodes and having a thickness of the dielectric material, where the inner layer is made of a viscous organic based material from low to high molecular weight and having a high polarity and doped with conductive materials selected from silver, copper, gold, graphene, activated carbon, conductive polymers, and combinations. The inner layer is made of a viscous organic based material from low to high molecular weight and having a high polarity and doped with a chelating agent. Also, the inner layer is made of a viscous organic based material from low to high molecular weight and having a high polarity and doped with a chelating agent having a conductive material selected from one of silver, gold, graphene, activated carbon, copper, aluminum, and conductive polymers, and combinations. The inner layer is made of a membrane that is porous or nonporous, having at least one of its surfaces coated with a material selected from a chelating agent, a resin, a resin doped with conductive particles, a resin doped with carbon based materials, or a combination. The inner layer is made of meshed metallic screen with at least one of its surfaces coated with one of a chelating agent, a resin, a resin doped with conductive particles, a resin doped with carbon based materials, or a combination. The inner layer comprises a metal, where the metal is selected from gold, copper, silver, aluminum, kovar, bronze, and combinations. The inner layer comprises a metallic material containing at least one fluidic conduit for controlling the temperature. The electrodes comprise a metallic material containing at least one fluidic conduit for controlling the temperature. The metallic inner layer comprises a metallic material containing at least one fluidic conduit for controlling the temperature. In a second alternative case, the capacitor comprises a thickness of multilayered dielectric material and two electrodes disposed substantially on opposite surfaces of the multilayered dielectric material. The capacitor is communicatively coupled to a photo-voltaic system. Preferred Method: Alternatively, producing the capacitor the capacitor having two spaced-apart electrodes and having the thickness of the dielectric material comprises depositing a dielectric relaxor on to the first electrode and then depositing the dielectric material on top of the first electrode, and depositing a dielectric relaxor on the second electrode. In a second alternative case, producing the capacitor comprises the deposition of electrode interfaces and subsequently the electrode materials on each side of the dielectric material using one of aqueous chemistry, chemical, and physical vapor deposition. In a third alternative case, producing the capacitor comprises applying the dielectric material to each surface of an inner layer or membrane that is in a reel to reel fashion and subsequently applying the top and bottom electrodes. In forming the capacitor, applying the heat treatment to the mixture comprises applying a heat treatment of about one-tenth to one-half of the melting point of the mixture, where applying the heat treatment to the mixture comprises applying first heat treatment at about 80 degrees C for a first predetermined period of time, applying a second heat treatment at about 180 degrees C for a second predetermined period of time, applying a third heat treatment at about half the melting point of the organometallic for a third predetermined period of time, applying a fourth heat treatment at a temperature less than that of the third heat treatment for a fourth predetermined period of time, and applying a fifth heat treatment at a temperature less than that of the fourth heat treatment. The method further comprises applying a heat treatment in the presence of a magnetic field. The magnetic field has a strength of about 0.1 Tesla or greater. The method comprises providing a gasket spanning the space between first and second electrodes, and further comprising providing a low viscosity solvent encapsulated by the gasket; providing a set of electrodes in communication with the first electrode, where the second electrode defines a larger dimension than each of the set of electrodes; and applying pressure to the dielectric mixture. Applying pressure comprises providing one or more solvents in the dielectric mixture, where applying a heat treatment to the dielectric mixture evaporates the one or more solvents in the dielectric mixture and thus imparts pressure thereto. Applying pressure comprises apply mechanical compressive forces to the dielectric mixture. One of the first and second electrodes defines one or more perforations for allowing evaporation of solvents through it. The method as well comprises inducing a bias voltage across the first or second electrodes. Applying the heat treatment comprises applying a heat treatment to at least partially dry the dielectric mixture. Providing the first and the second electrode comprises screen printing each of the first and second electrode. Preparing a dielectric mixture comprises preparing a first dielectric mixture and preparing a second dielectric mixture that is different from the first dielectric mixture, and further comprising depositing the first dielectric mixture onto the first electrode and depositing the second dielectric mixture onto the second electrode. Applying the heat treatment to the mixture comprises applying the heat treatment to the mixture before depositing at least one layer of the dielectric material onto one of the first and second electrodes. The method also comprises positioning the first and second electrodes in a closely spaced-apart relationship so as to form the capacitor. Alternatively, producing the dielectric material comprises partially sintering the layer containing organometallic materials with delocalized electrons at the molecular level; partially sintering the layer containing organometallic material with a substantially continuous phase having crystalline phase; and/or sintering the layer containing organic material with a substantially continuous phase having crystalline phase. In a second alternative case, producing the dielectric material comprises: preparing a vehicle material; mixing an organometallic material with the vehicle to form a mixture; applying a heat treatment to the mixture; and forming the heated mixture into a desired form. The vehicle comprises a resin or a solvent. The organometallic material comprises between about 20% and about 40% by volume copper phthalocyanine. Applying a heat treatment to the mixture comprises applying a heat treatment of about one-tenth to one-half of the degrees Kelvin melting point of the mixture. In enabling high power output from the device containing the set of capacitors, a voltage bias is applied from one of the inside portion or outside portion of one of the electrodes, or from an internal electrode formed within the dielectric material. The electrodes are magnetic and paramagnetic.