NOVELTY - The method involves forming a powder bed from predetermined powder. The powder bed is sintered at predetermined temperature to form a substrate e.g. cathode substrate. Electrolyte powder is distributed on a surface of the substrate. The substrate is impregnated with electrolyte by heating the substrate with the electrolyte powder to another predetermined temperature to melt and wick the electrolyte into the substrate to form an electrode for a fuel cell, where one of the sintering and impregnating steps is performed by applying induction heating to the powder bed and the substrate.    USE - Method for manufacturing an electrolyte impregnated electrode e.g. nickel cathode electrode and anode electrode, for a fuel cell directly converting chemical energy stored in hydrocarbon fuel into electrical energy by electrochemical reaction.    ADVANTAGE - The method enables providing electrode manufacturing process that ensures rapid heating of a work piece and uniform temperature distribution within a piece and improves uniformity of heating and cooling rates during the electrode manufacturing. The method enables reducing consumption of electrical energy, nitrogen gas and natural gas and reducing floor space and equipment maintenance cost. The method enables reducing processing time required to generate an electrode work piece. The method enables providing ceramic parts between a susceptor and the powder bed or substrate so as to prevent direct contact between the susceptor and the substrate.    DETAILED DESCRIPTION - The powder is cathode or anode powder (240). An INDEPENDENT CLAIM is also included for a manufacturing assembly for manufacturing an electrolyte impregnated electrode for a fuel cell.    DESCRIPTION OF DRAWING(S) - The drawing shows a schematic view of an induction heating system for sintering an electrode.    Induction heating system (200)    Coils (210A, 210B)    Susceptors (220A, 220B)    Cathode or anode powder (240)    Thermal insulating fibers (250)