NOVELTY - A 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 delocalized electrons.    USE - The dielectric material is useful for producing a capacitor. The capacitor and methods are useful for powering a vehicle; for powering a computing device; for storing energy from a solar panel or wind turbine; for storing energy and powering an electric apparatus; and for enabling high power output from a device (all claimed).    ADVANTAGE - The dielectric material of the invention enables superior energy storage per unit mass or per surface area given a fixed thickness compared to existing state of the art materials.    DETAILED DESCRIPTION - INDEPENDENT CLAIMS are:    (1) a capacitor having two spaced-apart electrodes and having a thickness of the dielectric material disposed in the space between it;    (2) a method of producing the capacitor having a first and a spaced-apart second electrode and having a thickness of the dielectric material, comprising depositing the dielectric material on top of the first electrode and depositing the dielectric material on the second electrode;    (3) a method for producing the dielectric material, comprising partially sintering the layer containing organic materials with delocalized electrons at the molecular level;    (4) a method for charging the capacitor, comprising charging the capacitor at a frequency below about 0.1;    (5) a method for forming the capacitor, comprising: providing a first and a second electrode; preparing a dielectric mixture comprising a vehicle material mixed with an organometallic material; depositing at least one layer of the dielectric mixture onto at least one of the first and second electrodes; and applying a heat treatment to the mixture;    (6) a method of storing energy in battery-like fashion using the capacitor, and further comprising transporting the energy;    (7) a method of powering a vehicle using tiles made of the capacitor;    (8) a method of powering a computing device using an energy storage device fabricated from the method;    (9) a method of storing energy from a solar panel or wind turbine using the energy storage device fabricated from the method;    (10) a method of storing energy and powering an electric apparatus using the energy storage device fabricated from the method;    (11) a method for stacking capacitors in series to increase charge storage, where the capacitors are the set of capacitors;    (12) a method for biasing multiple capacitors to increase charge storage, where the capacitors are the set of capacitors; and    (13) a method for enabling high power output from a device containing the set of capacitors.