Abstract
In recent trends, most implausible development was supersonic combustion chamber which operated without any moving parts. Due to the deceleration of the free stream air, the pressure, temperature and density of the flow entering the burner are "considerably higher than in the free stream". At flight Mach numbers of around Mach 6, these increases make it inefficient to continue to slow the flow to subsonic speeds. Thus, if the flow is no longer slowed to subsonic speeds, but rather only slowed to acceptable supersonic speeds, the ramjet is then termed a 'supersonic combustion ramjet,' resulting in the acronym scramjet. In this work the hot flow entering are altered to hypersonic speed, resulting in hypersonic combustion. This condition may be obtained by changing the swirler's into required geometrical shape. Factors such as size, weight, design complexity, maintainability, longevity, storability, production and life cycle costs, and logistic supportability were identified to be just as important as the performance characteristics (speed, range, and efficiency) of the hypersonic vehicle. These are analyzed using computational fluid dynamics software. The results were simulated for different boundary condition with varying blades at hypersonic speed level and then results will be compared to get positive and negative feedback.