NOVELTY - An electrolysis cell includes a solid electrolyte membrane having an anode and a cathode membrane surface. The solid electrolyte membrane is arranged in a housing and configured to partition the housing into anode and cathode chambers. It is operable to conduct protons and exchange cations.    USE - The electrolysis cell is used for the electrolysis of an aqueous solution of organic fuel, e.g. methanol, dimethoxymethane, trimethoxymethane, trioxane, formaldehyde, or formic acid, to produce hydrogen. The produced hydrogen can be used in the synthesis of chemicals (e.g. ammonia), in petroleum refining to produce high octane gasoline and aviation jet fuel, in the removal of sulfur, and in the hydrogenation processes. It can also be used for use in a fuel cell that can be mounted upon a vehicle for propulsion.    ADVANTAGE - The electrolysis cell utilizes aqueous organic fuel, which reduces the energy consumption, and thus the cost of the generated hydrogen gas. It further utilizes solid electrolyte membrane, which eliminates the conventional liquid acidic or alkaline electrolyte that causes corrosion of cell components, poor activity of catalysts and parasitic shunt currents.    DETAILED DESCRIPTION - An electrolysis cell comprises a liquid organic fuel, a housing, a solid electrolyte membrane (110), an anode (112), a cathode (114), and a direct current (DC) power supply (120) connected to the anode and cathode. The housing has a reservoir (140) that holds the liquid organic fuel, an anode chamber (104) that receives and circulates the organic fuel from the reservoir, and a cathode chamber (106) that collects hydrogen gas generated from electrolysis of the organic fuel. The solid electrolyte membrane has an anode and a cathode membrane surface. It is arranged in the housing and configured to partition the housing into the anode and cathode chambers. It is operable to conduct protons and exchange cations. The anode is formed on the anode membrane surface to interconnect the membrane and the anode chamber. The anode facilitates electro-oxidation of the organic fuel to generate protons. The cathode is formed on the cathode membrane surface to interconnect the membrane and the cathode chamber for electro-reduction of the protons to produce the hydrogen gas. The DC power supply supplies electrical power to the electro-oxidation and electro-reduction.    An INDEPENDENT CLAIM is also included for an electrical system comprising an electrical unit having the electrolysis cell, and an electrical power generating unit connected to the electrolysis unit. The electrical power generating unit receives the hydrogen gas from the electrolysis unit, and has a hydrogen fuel cell that consumes the hydrogen gas and produces electrical power.    DESCRIPTION OF DRAWING(S) - The figure is a schematic illustration of the electrolysis cell.    Anode chamber (104)    Cathode chamber (106)    Solid electrolyte membrane (110)    Anode (112)    Cathode (114)    DC power supply (120)    Reservoir (140)