A supersonic maneuver wing designed for nonlinear attached flow
W. MASON, M. SICLARI, David S. Miller, J. L. Pittman
Abstract
W. MASON, M. SICLARI, David S. Miller, J. L. Pittman
Abstract
A wing designed using the concept of attached supercritical crossflow for supersonic maneuvering aircraft wings has been built and tested. The detailed wing shape was determined using nonlinear potential flow computational aerodynamics methods to obtain a specified target pressure distribution. The test results showed that the target pressures were essentially obtained and that the drag-due-to-lift values at maneuver lift coefficients were considerably less than those expected using linear theory design procedures. The paper provides a detailed description of the wing design and test, and an analysis of the results.
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A wing designed using the concept of attached supercritical crossflow for supersonic maneuvering aircraft wings has been built and tested. The detailed wing shape was determined using nonlinear potential flow computational aerodynamics methods to obtain a specified target pressure distribution. The test results showed that the target pressures were essentially obtained and that the drag-due-to-lift values at maneuver lift coefficients were considerably less than those expected using linear theory design procedures. The paper provides a detailed description of the wing design and test, and an analysis of the results.
Key concepts: Wing, Choked flow, Aerospace engineering, Supersonic speed, Aerodynamics, Nonlinear system, Computer science, Flow (mathematics)