NOVELTY - The electrolytic reaction system for producing gaseous hydrogen and oxygen, comprises a reaction chamber (2) for accommodating an electrolyte, and an electrode arrangement (3), which comprises anodic and cathodic electrodes (5, 6). The electrode arrangement comprises plate-shaped electrodes that are fanned out in a star shape, where a virtual fanning axis (7) of the star-shaped electrode arrangement lies approximately on a virtual centrical cylinder axis or vertical axis or congruently with a virtual centrical cylinder axis or vertical axis of the reaction chamber.    USE - Electrolytic reaction system useful for producing gaseous hydrogen and oxygen.    ADVANTAGE - The electrolytic reaction system ensures simple and efficient production of gaseous hydrogen and oxygen with high purity.    DETAILED DESCRIPTION - The electrolytic reaction system for producing gaseous hydrogen and oxygen, comprises a reaction chamber (2) for accommodating an electrolyte, and an electrode arrangement (3), which comprises anodic and cathodic electrodes (5, 6). The electrode arrangement comprises plate-shaped electrodes that are fanned out in a star shape, where a virtual fanning axis (7) of the star-shaped electrode arrangement lies approximately on a virtual centrical cylinder axis or vertical axis or congruently with a virtual centrical cylinder axis or vertical axis of the reaction chamber. In an axial direction of the virtual cylinder axis or vertical axis, an electromagnetic coil (13) is arranged above and/or below the star-shaped electrode arrangement. The electromagnetic field of the electromagnetic coil acts on the electrolyte and on the electrode arrangement when exposed to electrical energy. The reaction chamber comprises a hollow-cylindrical or hollow prismatic body form and the virtual cylinder- and/or vertical axis of the mantle surface of the reaction chamber is vertically aligned. The reaction chamber comprises a hollow cylindrical or hollow prismatic reception container in which the star- or tube-shaped electrode arrangement is arranged. The reception container for the electrolyte and for the electrode arrangement is arranged in upper end section, and the mantle- or cylinder-surface of the reception container is arranged from the internal surface of the reaction chamber. The virtual fanning axis of the electrode arrangement or the virtual tube axis of the electrode arrangement lies on the virtual cylinder- and/or vertical axis of the reception container. The electrode arrangement is completely arranged in the electrolyte and an electromagnetic coil is arranged below a regular or minimum fluid level for the electrolyte or in the electrolyte. The electromagnetic field of the electromagnetic coil transposes the anodic and cathodic electrodes in mechanical oscillation so that a displacement of the gas bubbles emerging at the electrodes is carried out. The electromagnetic coil is formed in ring-shaped manner and lies its centre- and/or middle point on or near to the virtual fanning axis or the virtual tube axis of the electrode arrangement. The electromagnetic coil comprises four partial windings arranged to the circumference of the coil-winding body, where three coil windings are formed at 45 degrees to coil axis. A first electric energy source is formed for pulsed energy supply of the anodic and cathodic electrodes. A further electric energy source is formed for pulsed energy supply of the electromagnetic coil. An energy frequency of the first energy source for the energy supply of the electrodes, and an energy frequency of the second energy source for energy supply of the electromagnetic coil are selected in such away that the electrolytic system processes the resonance frequency. An inlet opening for the supply and/or filling of the electrolyte is arranged in lower section of the reaction chamber or the reception container. A means for the turbulence of the electrolyte for producing a current in the electrolyte is formed in the reaction chamber or in the reception container. The means for the turbulence is formed through a suction- and/or outlet nozzles arranged in the reaction chamber or in the reception container. The means for the turbulence of the electrolyte is formed through a stirrer, and an overflow edge is formed for limiting or implementing a maximum fluid level of the electrolyte in the reaction chamber. A hollow cylindrical electrolyte container is formed with cylinder axis. An outlet opening for discharging electrolyte or electrolyte foam from the reaction chamber flowing over the overflow edge is formed. A recirculation line is arranged for the electrolyte flowing over the overflow edge in the electrolyte container. A collection section for the electrolyte is arranged within the reaction chamber or within the recirculation line guiding in the reaction chamber for the electrolyte, for the formation of siphon-like gas stop for the produced hydrogen and oxygen. A continuous or discontinuous inlet and outlet of the electrolyte are arranged through exchanging of water in the reaction chamber and/or in the collection container. A reception container for the electrolyte and a passage opening for ambient air and/or for gaseous nitrogen in the electrolyte are formed in the reaction chamber. The means for the generation of lower pressure is arranged in the reaction chamber in related to the atmospheric ambient pressure. The generation of lower pressure in the reaction chamber is carried out through a flow-technical connection between the reaction chamber by a suction system or a benzene-, gas- or diesel motor. The virtual tubular axis of the electrode is vertically directed. The distal end section of the tubular electrode is openly implemented. Between the mantle- and cylinder surfaces of the tubular electrode, a hollow cylindrical- or prismatic gap is formed by which a disintegration of gas bubbles from the electrolyte is carried out in the gas area. An interval between the electrodes is dimensioned from an external pair of electrodes in comparison to a further pair of electrodes. A wall strength of the electrode is dimensioned in such a way that the electromagnetic field of the coil causes stimulation of mechanical oscillations. The plate-shaped electrode or tubular or hollow prismatic electrode of the electrode arrangement comprises a slit in order to transfer the electromagnetic coil in reinforced mechanical oscillation under influence of electromagnetic fields. The electromagnetic coil is formed in torus- or ring-shaped manner and has part windings electrically connected in series, which extend itself over a circumference angle of 20 degrees of the ring circumference of the coil.    DESCRIPTION OF DRAWING(S) - The diagram shows a schematic representation of an electrolytic reaction system.    Reaction chamber (2)    Electrode arrangement (3)    Anodic and cathodic electrodes (5, 6)    Virtual fanning axis (7)    Electromagnetic coil. (13)