Abstract: An oscillator including a tuned resonating cavity uses an alternating electrostatic unipolar burst of voltage to oscillate water molecules into a superheated state. Particle displacement is achieved by opposite electrical charge potentials as the electromotive force mover upon water molecules. These short oscillations cause elastic and inelastic particle impacting of the bipolar water molecules. The oscillator of the present invention is implemented with a dual-switching transformer which is tuned to resonate with water. Electrodes are formed of an electro-conductive material submerged in/or around the water. Resonant metallic capacitive vessels are made in various shapes and sizes to reach determined thermal radiating electromagnetic levels as they are progressively oscillated during operations.

Abstract: Provided in this disclosure is an electrolysis system using voltage in a purely physical process, without resorting to passing current through an electrolyte in a chemical process. The present invention includes a tri-coil design resonant cavity transformer that utilizes the dielectric properties of a material acting as part of a “closed loop” electrical (Resistor, Inductor, Capacitor) RLC circuit. The tri-coil transformer (or TCT) is tuned to the dielectric properties of a suitable material, which can be water, liquid metals, or even ambient air. The TCT can be a tri-coil resonating cavity transformer employing either a Maxwell or Helmholtz tri-coil design. The present invention entails a physical approach to electrolysis based on voltage and not amperage to dissociate a selected dielectric medium, an approach that is 180 degrees out of phase from traditional Faraday electrolysis.

Abstract: An electrolysis system includes an injector with a conical tapered resonant capacitor wave-guide forming two voltage zones of polarity. An anode probe establishes a positive charge reaction of a capacitive voltage region. An anode exciter component has a conically tapered tip with a tapering diameter that diminishes toward a tip end and determines a guide path through the injector for a dielectric medium. A cathode probe is retained within the anode probe for establishing a negative charge reaction of the capacitive voltage region. A cathode exciter component includes a cathode tapered tip conically parallel with the anode conically tapered tip. The anode and cathode end portions form a compression exiting nozzle port. The compression exiting nozzle port receives a mixture of water mist and fuel gases to focus the mixture into a trigger zone of fuel gas combustion, which triggers an electrolysis reaction in the water mist.

Abstract: Provided herewith is a closed loop circuit including a transistor operable as a microscopic switch device to amplify electron pressures. The transistor has a collector connected to a positive voltage source. An optocoupler is provided, connected in parallel to the positive voltage source, and triggered in response to a triggering unipolar pulse from a network. An output of the optocoupler is connected to a base of the transistor. A capacitor is provided, connected between the emitter of the transistor and a ground, and having an anode and a cathode for receiving a capacitive dielectric medium therebetween, such that, electrons flow through dielectric medium to the transistor from a ground state in order to break down the dielectric material. In the preferred embodiment, the dielectric material includes water which is dissociated into hydrogen and oxygen.

Abstract: Provided herewith is a closed loop circuit including a transistor operable as a microscopic switch device to amplify electron pressures. The transistor has a collector connected to a positive voltage source. An optocoupler is provided, connected in parallel to the positive voltage source, and triggered in response to a triggering unipolar pulse from a network. An output of the optocoupler is connected to a base of the transistor. A capacitor is provided, connected between the emitter of the transistor and a ground, and having an anode and a cathode for receiving a capacitive dielectric medium therebetween, such that, electrons flow through dielectric medium to the transistor from a ground state in order to break down the dielectric material. In the preferred embodiment, the dielectric material includes water which is dissociated into hydrogen and oxygen.

Abstract: Provided in this disclosure is an electrolysis system using voltage in a purely physical process, without resorting to passing current through an electrolyte in a chemical process. The present invention includes a tri-coil design resonant cavity transformer that utilizes the dielectric properties of a material acting as part of a “closed loop” electrical (Resistor, Inductor, Capacitor) RLC circuit. The tri-coil transformer (or TCT) is tuned to the dielectric properties of a suitable material, which can be water, liquid metals, or even ambient air. The TCT can be a tri-coil resonating cavity transformer employing either a Maxwell or Helmholtz tri-coil design. The present invention entails a physical approach to electrolysis based on voltage and not amperage to dissociate a selected dielectric medium, an approach that is 180 degrees out of phase from traditional Faraday electrolysis.

Abstract: An oscillator including a tuned resonating cavity uses an alternating electrostatic unipolar burst of voltage to oscillate water molecules into a superheated state. Particle displacement is achieved by opposite electrical charge potentials as the electromotive force mover upon water molecules. These short oscillations cause elastic and inelastic particle impacting of the bipolar water molecules. The oscillator of the present invention is implemented with a dual-switching transformer which is tuned to resonate with water. Electrodes are formed of an electro-conductive material submerged in/or around the water. Resonant metallic capacitive vessels are made in various shapes and sizes to reach determined thermal radiating electromagnetic levels as they are progressively oscillated during operations.