NOVELTY - The method for producing hydrogen, oxygen and electricity, comprises combining water and sulfur trioxide in an atmosphere comprising dilution gas to form sulfuric acid in a gaseous or mist form, and subjecting the mist or vapor comprising sulfuric acid and an ion mixture to energy input from electrical sparks, electromagnetic pulses or light or laser energy inputs for producing a mixture comprising energized sulfuric acid, energized ions and ionic oxygen, where the mist or vapor is subjected in an atmosphere comprising dilution gas.    USE - The method is useful for producing hydrogen, oxygen and electricity, where the hydrogen and oxygen is useful in an internal combustion engine to power a vehicle and the electricity is used to power other features such as radios and communications equipment and electrical motors in hybrid vehicles.    ADVANTAGE - The method is capable of efficiently, continuously and economically producing hydrogen, oxygen and electricity from chemical compounds without producing undesirable by-products thus yielding environmental friendly sources of fuels and energy.    DETAILED DESCRIPTION - The method for producing hydrogen, oxygen and electricity, comprises combining water and sulfur trioxide in an atmosphere comprising dilution gas to form sulfuric acid in a gaseous or mist form, subjecting the mist or vapor comprising sulfuric acid and an ion mixture to energy input from electrical sparks, electromagnetic pulses or light or laser energy inputs for producing a mixture comprising energized sulfuric acid, energized ions and ionic oxygen, where the mist or vapor is subjected in an atmosphere comprising dilution gas, exposing the energized sulfuric acid and ion mixture to an electromagnetic field, which is strong enough to effectively ionize the sulfuric acid into a mixture comprising primarily hydrogen ions and sulfate ions, separating the hydrogen ions and sulfate ions by electromagnetic fields, electrostatically charged surfaces and heat absorption means to produce separated protons and separated sulfate ions, sequestering the separated hydrogen ions as protons and hydrogen molecules, harvesting the sequestered protons and hydrogen molecules as molecular hydrogen by providing electrons to the protons via a negative electrode means, sequestering the separated sulfate ions into a reservoir, sequestering the oxygen ions via a positive electrode to produce molecular oxygen and electrons, harvesting the molecular oxygen, and transporting sulfate ions to a membrane for providing a source of sulfur and oxygen species. The sequestering of the protons and hydrogen molecules is carried out by the membrane, which is essentially permeable to protons and hydrogen molecules and essentially impermeable to other atomic and molecular species. The electrons from the oxygen ions are transported to the electrode for enabling the formation of molecular hydrogen. The subjecting and exposing steps are performed in a chamber or zone having a temperature of less than -20 degrees C. The oxygen ions are combined to provide a source of molecular oxygen and electrons. The electromagnetic fields are adapted and arranged to propel positively charged ionic species toward a first collection chamber, and to retard the upward progress of negatively charged ionic species. A proton acceleration coil is provided to assist in propelling positively charged ionic species toward the first collection chamber. An oxygen choke coil is provided to assist in repelling negatively charged oxygen ions toward a second collection chamber, which is disposed separately from the first collection chamber. The sequestering steps and harversting step are performed with respect to cooling unit in an environment adapted and arranged to remove a sufficient amount of heat to assist in separating the various ionic species from one another. The cooling unit is located in proximity to the cooled species, and comprises cooling coils, cooling beads and cooling jackets. The membrane comprises a substrate comprising pores, a primary coating of a first metal disposed upon a part of the substrate and a secondary coating of a second metal disposed upon a part of the primary coating, where a size of the pores falls within a desired range. The primary and secondary coatings comprise a sufficient amount of the first metal and the second metal to make the membrane essentially permeable to protons and hydrogen molecules and essentially impermeable to other atomic and molecular species. A rate of chemical reactions of the method is controlled by varying the amount of introduced water and sulfur trioxide, which is a waste material from an industrial process. A source of electrical or photoionizing energy is obtained from the sources including batteries, fuel cells, alternative renewable energy sources such as solar power, energy from chemical reactions, energy from nuclear power plants or other nuclear reactions and energy directly from sunlight or from electricity generated from solar facilities.    DESCRIPTION OF DRAWING(S) - The diagram shows a device or apparatus for producing hydrogen, oxygen and electricity.    Clamp (17)    Electrically conductive cable (39)    Fuse (40)    Hydrogen output tube (48)    Negatively charged copper electrode. (49)