NOVELTY - The method (100) involves introducing portion of aqueous solution into cathodic chamber partially defined by cathode and membrane having ripstop nylon and into anodic chamber partially defined by anode and membrane. The anodic chamber is in fluid communication with cathodic chamber. The membrane is partially located between cathode and anode. The direct current (DC) electrical potential is applied between cathode and anode. The first and second electrolytic decomposition products of water are respectively withdrawn from cathodic chamber and anodic chamber.    USE - Electrochemical process for producing hydrogen used for powering vehicle, furnace, water heater, stove, oven, air conditioner, refrigerator, electrical generator, and fuel cell (all claimed) used in residence and office.    ADVANTAGE - The electricity can be utilized effectively to induce chemical reaction including separation of water into component element. The clean alternative power can be utilized effectively for comprehensive electrolytic hydrogen generation process for making hydrogen fuel available, without relying upon complex and expensive hydrogen distribution infrastructure. The occurrence of complex and expensive waste disposal problems can be eliminated. The ripstop nylon fabric membrane is high in durability, low in cost, and light in weight. The small inter-electrode gaps and high electrode-water contact areas can ensure the high-efficiency electrolyzer operation. The occurrence of danger situation during electrolytic generation of hydrogen can be prevented. The cell efficiency can be improved.    DETAILED DESCRIPTION - The cathodic chamber is defined by the aperture of first frame located between cathode and membrane. The anodic chamber is defined by the aperture of second frame located between anode and membrane. The first and second product outlets are respectively in fluid communication with cathodic and anodic chambers through product channels. The cathodic potential is impressed on the cathode. The anodic potential is impressed on the anode. The first electrolytic decomposition product of water is made of hydrogen. The second electrolytic decomposition product of water is made of oxygen. The aqueous solution is made of sodium hydroxide, potassium hydroxide, cations of lithium, cations of rubidium, cations of potassium, cations of cesium, cations of barium, cations of strontium, cations of calcium, cations of sodium, or cations of magnesium. The electrical power is supplied from power source chosen from list consisting of solar, wind, or battery. The electrolytic decomposition product of water is utilized from the cathodic chamber in devices chosen from list consisting of vehicle, furnace, water heater, stove, oven, air conditioner, refrigerator, electrical generator, or fuel cell. The frames of cathode and membrane are made to define aperture and are provided with first side facing second side of the cathode and the membrane. The liquid inlet is made to form hole between first and second sides of cathode and membrane. The channel is formed on first side between aperture and liquid inlet and between aperture and gas outlet. The gas outlet is made to form hole between first and second sides of cathode and membrane. The membrane side of the membrane-electrode assembly is made to face second side of first end frame. The first side of the interior electrode is made to face the second side of the first interior frame. The interior electrode is made to define anodic chamber.    DESCRIPTION OF DRAWING(S) - The drawing shows a perspective view illustrating the electrolyzer and associated collection towers along with enclosures.    Electrochemical method (100)    Electrolyzer (102)    Hydrogen collector (104)    Oxygen collector (106)    Sealed electrolyzer enclosure (108)