NOVELTY - A fuel cell comprises: (i) an anode chamber for receiving liquid gallium fuel; (ii) an ion exchange chamber for receiving an aqueous electrolytic alkaline solution and hydroxyl ions; (iii) a porous membrane; (iv) a cathode having a gas and liquid permeable cathode current collector for receiving and transmitting the free electrons from the anode conductor; and (v) an electrical conduit.    USE - As a fuel cell.    ADVANTAGE - The fuel cell can take many forms and exhibit many combinations that include the various components of the assembly.    DETAILED DESCRIPTION - A fuel cell comprises:    (a) an anode chamber (10) for receiving liquid gallium fuel and having an anode current conductor in electrical contact with the fuel;    (b) an ion exchange chamber (11) for receiving an aqueous electrolytic alkaline solution and hydroxyl ions;    (c) a porous membrane interposed between the anode chamber and the ion exchange chamber to separate the solution from the fuel and configured with pores sized to cause electrochemically reactive contact between the fuel and the hydroxyl ions, the contact causes the formation of a reaction product of gallium hydroxide to free electrons to flow through the fuel to the anode conductor;    (d) a cathode adjacent the ion exchange chamber spaced from the membrane and having a first surface to be wetted by the solution in the exchange chamber, a second surface to be in contact with an oxygen gas, and a gas and liquid permeable cathode current collector for receiving and transmitting the free electrons from the anode conductor, and configured to electrochemically combine the free electrons received from the anode conductor with the oxygen gas and with the water of the aqueous solution to form the hydroxyl ions in the solution; and    (e) an electrical conduit connected between the anode conductor and the cathode collector. INDEPENDENT CLAIMS are also included for:    (a) a method of creating electrical energy, comprising forming an anode chamber to contain liquid gallium fuel and having an anode current conductor to be in electrical contact with the fuel to receive and transmit free electrons; forming an ion exchange chamber to contain an aqueous electrolytic alkaline solution, the solution comprises hydroxyl ions and to be separated from the fuel by a porous membrane; selecting the membrane, the pores sized to cause electrochemically reactive contact between the fuel and the hydroxyl ions, the contact causes the formation of a reaction product of gallium hydroxide and free electrons, the free electrons flow through the fuel to the anode conductor; interposing such a membrane between the anode chamber and the ion exchange chamber to separate the fuel from the solution; placing a cathode adjacent the ion exchange chamber remote from the membrane and having a first surface wetted by the solution, a second surface in contact with an oxygen gas, and a gas and liquid permeable cathode current collector for receiving and transmitting free electrons, the cathode being configured to electrochemically combine the free electrons received by the cathode current collector with the oxygen gas and with the water of the aqueous solution to term the hydroxyl ions in the solution; filling the anode chamber with the liquid gallium fuel and immersing the anode conductor in the fuel; filling the ion exchange chamber with the aqueous electrolytic alkaline solution; supplying the oxygen gas to the cathode collector; and connecting an electrical conduit from the anode conductor to the cathode collector; and    (b) a method of making a fuel cell housing, comprises forming an anode chamber to contain liquid gallium fuel and including an anode current conductor to be in electrical contact with the fuel for receiving and transmitting free electrons; forming an ion exchange chamber to contain an aqueous electrolytic alkaline solution, the solution comprising hydroxyl ions and is separated from the fuel by a porous membrane; selecting the membrane, the pores sized to cause electrochemically reactive contact between the fuel and hydroxyl ions that forms a reaction product of gallium hydroxide and free electrons that flow through the fuel to the anode conductor; interposing such a membrane between the anode chamber and the ion exchange chamber to separate the fuel from the solution; placing a cathode adjacent the ion exchange chamber far from the membrane and having a first surface wetted by the solution, a second surface in contact with an oxygen gas, and a gas and liquid permeable cathode current collector that receives and transmits free electrons, the cathode is configured to electrochemically combine the free electrons received by the cathode current collector with the oxygen gas and with the water of the aqueous solution to form the hydroxyl ions in the solution; and connecting an electrical conduit from the anode conductor to the cathode collector.    DESCRIPTION OF DRAWING(S) - The figure shows a diagrammatic view of the fuel cell.    anode chamber (10)    Ion exchange chamber (11)    Conductor plate (13)    Conductor post (14)    Circuit (16)    Switch (18)