Studies of scramjet/airframe integration techniques for hypersonic aircraft
C. EDWARDS, William C. Small, John P. Weidner, P.H. Johnston
Abstract
C. EDWARDS, William C. Small, John P. Weidner, P.H. Johnston
Abstract
New design and analysis techniques for engine-airframe integration were applied in a recent hypersonic vehicle design study. A new technique was developed to design the vehicle's forebody so that uniform precompressed flow was produced at the inlet entrance. Results are verified with three-dimensional characteristic calculations. Results from a new three-dimensional method for calculating nozzle flows show that the entire lower afterbody of the vehicle can be used as a scramjet exhaust nozzle to achieve efficient, controlled, and stable flight over a wide range of flight conditions.
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New design and analysis techniques for engine-airframe integration were applied in a recent hypersonic vehicle design study. A new technique was developed to design the vehicle's forebody so that uniform precompressed flow was produced at the inlet entrance. Results are verified with three-dimensional characteristic calculations. Results from a new three-dimensional method for calculating nozzle flows show that the entire lower afterbody of the vehicle can be used as a scramjet exhaust nozzle to achieve efficient, controlled, and stable flight over a wide range of flight conditions.
Key concepts: Airframe, Scramjet, Hypersonic speed, Aerospace engineering, Aeronautics, Hypersonic flight, Computer science, Engineering