MODELING OF AN AIRPLANE WING MOMENTS INDUCED BY ATMOSPHERIC TURBULENCE
DOI:
https://doi.org/10.18372/2306-1472.59.6790Keywords:
power spectral density, turbulence models, von Karman modelAbstract
We have used Diederich’s theory of wingspan average correlation functions to obtain analytical expressions for the local spectral density of aircraft wing moments induced by horizontal and vertical wind gusts. We have assumed that the correlation functions of atmospheric turbulence belong to the Bullen family which includes both partial cases of known Dryden’s model as well as von Karman’s model.References
Diederich, F.W. The Dynamic Response of a Large Airplane to Continuous Random Atmo-spheric Disturbances. Journal of the Aeronautical Sciences. 1956. Vol. 23, N 10.P. 917–930.
Diederich, F. W.; Drischler, J.A. Effect of Spanwise Variations in Gust Intensity on the Lift due to Atmospheric Turbulence. National Advisory Committee for Aeronautics. Technical Note 3920. 1957. 57 p.
Eggleston, J.M.; Diederich, F.W. Theoretical Calculation of the Power Spectra of the Rolling and Yawing Moments on a Wing in Random Turbulence. National Advisory Committee for Aeronautics. Report N1321. 1957. 20 p.
Erdélyi, A.et al. Tables of Integral Transforms. Vol. 1. McGraw-Hill Book Company. Inc., MR 15. 1954. 868 p.
Etkin, B. Turbulent Wind and its Effect on Flight. Journal of Aircraft. 1981. Vol. 18, N 5.
P. 327–345.
Filotas, L.T. Approximate Transfer Functions for Large Aspect Ratio Wings in Turbulent Flow. Journal of Aircraft. 1971. Vol. 8, N 5. P. 395–400.
Houbolt, J.C. Atmospheric Turbulence. AIAA Journal. 1973. Vol. 11, N 4. P. 421–437.
Schanzer, G.; Xiao, Y. Lift and Rolling Moment of a Finite Wing due to Sinusoidal and Stochastical Turbulence. Aerospace Science and Technology. 1997. Vol.1, N5. P. 341–354.
Taylor, J. Manual on Aircraft Loads. Published for and on behalf of Advisory Group for Aeronautical Research and Development, North Atlantic Treaty Organization by Pergamon Press in Oxford. New York. 1965. 350 p.
Diederich, F. W.; Drischler, J.A. Effect of Spanwise Variations in Gust Intensity on the Lift due to Atmospheric Turbulence. National Advisory Committee for Aeronautics. Technical Note 3920. 1957. 57 p.
Eggleston, J.M.; Diederich, F.W. Theoretical Calculation of the Power Spectra of the Rolling and Yawing Moments on a Wing in Random Turbulence. National Advisory Committee for Aeronautics. Report N1321. 1957. 20 p.
Erdélyi, A.et al. Tables of Integral Transforms. Vol. 1. McGraw-Hill Book Company. Inc., MR 15. 1954. 868 p.
Etkin, B. Turbulent Wind and its Effect on Flight. Journal of Aircraft. 1981. Vol. 18, N 5.
P. 327–345.
Filotas, L.T. Approximate Transfer Functions for Large Aspect Ratio Wings in Turbulent Flow. Journal of Aircraft. 1971. Vol. 8, N 5. P. 395–400.
Houbolt, J.C. Atmospheric Turbulence. AIAA Journal. 1973. Vol. 11, N 4. P. 421–437.
Schanzer, G.; Xiao, Y. Lift and Rolling Moment of a Finite Wing due to Sinusoidal and Stochastical Turbulence. Aerospace Science and Technology. 1997. Vol.1, N5. P. 341–354.
Taylor, J. Manual on Aircraft Loads. Published for and on behalf of Advisory Group for Aeronautical Research and Development, North Atlantic Treaty Organization by Pergamon Press in Oxford. New York. 1965. 350 p.
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Published
04-07-2014
How to Cite
Antonova, A., Kulyk, M., & Lastivka, I. (2014). MODELING OF AN AIRPLANE WING MOMENTS INDUCED BY ATMOSPHERIC TURBULENCE. Proceedings of National Aviation University, 59(2), 68–72. https://doi.org/10.18372/2306-1472.59.6790
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MODERN AVIATION AND SPACE TEHNOLOGY