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At present, the world’s bulk energy requirements are based on the combustion of fossil fuels, which causes air pollution, acid gas emissions and the emission of greenhouse gases. Fuel cell technology a source of clean energy production as it does not involve the typical hydrocarbon based combustion reaction [1,2]. A fuel cell is an electrochemical device that converts the chemical energy in fuels such as hydrogen (or hydrogenrich fuel like methane, butane) into electrical energy by exploiting the natural tendency of oxygen and hydrogen to react [1-4]. Solid oxide fuel cell is one type of solid-state ionic based fuel cell devices which have all its components in solid state and contains no moving parts. It consists of an electrolyte sandwiched between a porous anode and cathode, one of which may be thick enough to act as a support [1-3]. By controlling the means by which such a reaction occurs and directing the reaction through a device, it is possible to harvest the energy given off by the reaction. They operate at very high temperatures typically around 1,000 °C allowing them for on-board reforming of fuels without adding a reformer to the system [2-4]. They are not even poisoned by carbon monoxide, which can even be used as fuel along with hydrogen [1-3]. Kinetics Analysis of Reactions at Triple Phase Boundaries of Anode Supported Tubular Solid Oxide Fuel Cell