NOVELTY - The flat-panel direct methanol fuel cell module (1) useful in electronic apparatuses and vehicles, comprises an anode flow board (10) having an anode board, an adhesive layer and a flow board that provides flow path for fuel and reaction products, a cathode board (12) having a substrate, a cathode charge collector and through holes on the cathode charge collector, a membrane electrode assembly (MEA) (16) having a proton exchange membrane, an intermediate adhesive layer (14a) having a corresponding opening for accommodating the MEA, and a leak-proof adhesive layer (18a).    USE - The flat-panel direct methanol fuel cell module is useful in electronic apparatuses, vehicles, military equipments and aerospace industry.    ADVANTAGE - The flat-panel direct methanol fuel cell module is capable of solving fuel leakage, and has high performance capacity and reliability.    DETAILED DESCRIPTION - The flat-panel direct methanol fuel cell module (1) useful in electronic apparatuses and vehicles, comprises an anode flow board (10) having an anode board, an adhesive layer and a flow board that provides flow path for fuel and reaction products, a cathode board (12) having a substrate, a cathode charge collector and through holes on the cathode charge collector, a membrane electrode assembly (MEA) (16) having a proton exchange membrane, an intermediate adhesive layer (14a) having a corresponding opening for accommodating the MEA, and a leak-proof adhesive layer (18a) mounted between the anode flow board and the MEA for preventing direct contact between the intermediate adhesive layer and the proton exchange membrane. The anode board comprises an anode supporting substrate having a printed circuitry formed by printed circuit board processes, and an anode charge collector fixed on the anode supporting substrate. The anode charge collector is electrically connected to the printed circuitry. The adhesive layer bonds the anode board and the flow board. The cathode charge collector is formed on two opposite sides of the substrate. The adhesion ability of the leak-proof adhesive layer to the proton exchange membrane is better than that of the intermediate adhesive layer to the proton exchange membrane. The intermediate adhesive layer, MEA, and leak-proof adhesive layer are laminated together between the anode flow board and the cathode board. The MEA has two opposite sides that are in contact with the anode flow board and cathode charge collector respectively. The intermediate adhesive layer comprises polymer adhesives. The anode charge collector is made of metal materials or non-metal materials. The cathode charge collector comprises a conductive layer. The anode charge collector is fixed on the anode supporting substrate by pressing, spot-welding or soldering methods. The anode charge collector is lined with another conductive layer that completely covers the anode charge collector. The conductive layers are formed by electroplating, electroless plating sputtering, or chemical or physical deposition methods. The another conductive layer is resistive to methanol corrosion. The proton exchange membrane comprises carbon-fluoride system or hydrocarbon-type proton exchange membranes. The cathode board is fabricated by using printed circuit boards, plastic boards, graphite boards or metal boards. The anode flow board comprises a bendable metal lug for electrically connecting the printed circuitry on the anode supporting substrate thus forming series or parallel connection configurations of unit cells of the fuel cell module. The metal lug is fixed on the anode supporting substrate by spot welding or soldering methods.    DESCRIPTION OF DRAWING(S) - The figure shows a schematic diagram of a fuel cell module.    Fuel cell module (1)    Anode flow board (10)    Cathode board (12)    Intermediate adhesive layer (14a)    Membrane electrode assembly (16)    Leak-proof adhesive layer. (18a)