Upper-surface modifications for C sub l max improvement of selected NASA 6-series airfoils
C. A. Szelazek, Raymond M. Hicks
Abstract
Open-access reader
C. A. Szelazek, Raymond M. Hicks
Abstract
Open-access reader
The thickness of the upper surface of 64 airfoils was increased from the leading edge to the position of maximum thickness. The modifications were generated using a numerical optimization routine coupled with an aerodynamic analysis code. The type of modification presented can be used for aircraft design or for the retrofit of current aircraft to improve the stall characteristics and climb performance. The coordinates of the modified airfoils are presented with plots of the forward 45% of the profiles and pressure distributions for both the modified and unmodified sections at an angle of attack of 14 degrees.
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The thickness of the upper surface of 64 airfoils was increased from the leading edge to the position of maximum thickness. The modifications were generated using a numerical optimization routine coupled with an aerodynamic analysis code. The type of modification presented can be used for aircraft design or for the retrofit of current aircraft to improve the stall characteristics and climb performance. The coordinates of the modified airfoils are presented with plots of the forward 45% of the profiles and pressure distributions for both the modified and unmodified sections at an angle of attack of 14 degrees.
Key concepts: Airfoil, Climb, Stall (fluid mechanics), Aerodynamics, Leading edge, Angle of attack, Position (finance), Aerospace engineering