Zusammenfassung
Wie bereits in Kapitel 1 anhand der Funktionsdiagramme Abb. 1. 6 und 1. 7 gezeigt wurde, besteht die Problematik der analytischen Behandlung der statischen aeroelastischen Probleme von Auftriebssystemen in der Bestimmung des Einflusses der elastischen Verformung auf die stationäre aerodynamische Auftriebsverteilung und der Untersuchung der Stabilität des daraus resultierenden statischen Deformationsverhaltens. Die detaillierte Kenntnis dieser Zusammenhänge ist insbesondere bei Flugkonstruktionen von fundamentaler Bedeutung für die festigkeitsmäßige Auslegung und Gestaltung der Auftriebs- und Steuerflächen. Außerdem können die elastischen Deformatio-nen auch recht nachteilige Auswirkungen auf die statische Flugstabilität haben. Dasselbe gilt in übertragenem Sinne auch für die statische hydroelastische Stabilität und das Steuerungsverhalten von Tragflächenbooten.
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Literatur
COX, H. R.; PUGSLEY, A. G.: Theory of Loss of Lateral Control Due to Wing Twisting. ARC R.& M. 1506 (1932)
PUGSLEY, A. G.; COX, H. R.: The Aileron Power of a Monoplane. ARC R. & M. 1640 (1934)
COX, H. R.; PUGSLEY, A. G.: Stability of Static Equilibrium of Elastic and Aerodynamic Actions on a Wing. ARC R. & M. 1059 (1934)
DÄTWYLER, G.: Der Einfluß der elastischen Deformation auf die Luftkräfte am Tragflügel. Schweizer Aero-Revue Bd. 6 (1931) Nr. 29 S.264
DÄTWYLER, G.: Calculations of the Effect of Wing Twist on the Air Forces Acting on a Monoplane Wing. NACA TN 520 (1935)
FLAX, A. H.: The Influence of Structural Deformation on Airplane Characteristics. J. Aeron.Sci. Bd. 12 (1945) S. 94–102
HILDEBRAND, F. B.; REISSNER, E.: The Influence of the Aerodynamic Span Effect on the Magnitude of the Torsional Divergence Velocity and on the Shape of the Corresponding Deflection Mode. NACA TN 92 6 (1949)
LAWRENCE, H. R.; SEARS, W. R.: Three-Dimensional Wing Theory for the Elastic Wing. Northrop Aircraft Inc. Rep.A-59 (1944)
PINES, S.: A Unit Solution for the Load Distribution of a Nonrigid Wing by Matrix Methods. J. Aeron.Sci. Bd. 16 (1949) S. 470–476
DIEDERICH, F. W.; BUDIANSKI, B.: Divergence of Swept Wings. NACA TN 1680 (1948)
PAI, S.I.; SEARS, W. R.: Some Aeroelastic Properties of Swept Wings. J. Aeron.Sci. Bd. 16 (1949) S.105–115
MILES, J. W.: A Formulation of the Aeroelastic Problem for Swept Wing. J. Aeron. Sci. Bd. 16 (1949) S.477–490
PIAN, T. H. H.; LIN, H.: Effect of Structural Flexibility on Aircraft Loading — Spanwise Airload Distribution. Air Force Techn. Rep. 6353 Part II (1951)
BROWN, R.B.; HOLTBY, K.F.; MARTIN, H. C.: A Superposition Method for Calculating the Aeroelastic Behavior of Swept Wings. J. Aeron. Sci. Bd. 18 (1951) S. 531–542
DIEDERICH, F. W.; FOSS, K.A.: Charts and Approximate Formulas for the Estimation of Aeroelastic Effects on the Loading of Swept and Unswept Wings. NACA Rep. 1139 (1953)
SEIFERT, G.: A Third Order Boundary Value Problem Arising in Aeroelastic Wing Theory. Quart. Appl. Math. Bd. IX (1951) S. 210–218
BUDIANSKY, B.; MAYERS, J.: Influence of Aerodynamic Heating on the Effective Torsional Stiffness of Thin Wings. J. Aeron. Sci. Bd.23 (1956) S. 1081–1093
PEARSON, H. A.; AIKEN, W. S.: Charts for the Determination of Wing Torsional Stiffness Required for Specified Rolling Characteristics of Aileron Reversal. NACA Rep.799 (1944)
DIEDERICH, F. W.; FOSS, K. A.: Static Aeroelastic Phenomena of M-, W- and A-Wings. NACA RM L52J21 (1953)
BROWN, S. C.: Predicted Static Aeroelastic Effects on Wings With Supersonic Leading Edges and Streamwise Tips. NASA MEMO 4–18–59A (1959)
BIOT, M. A.: Aeroelastic Stability of Supersonic Wings, Report 1: Chordwise Divergence — The Two-Dimensional Case. Cornell Aeron. Lab. Rep. CAL/CM-427, CAL-l-E-1 (1947)
BIOT, M. A.: Aeroelastic Stability of Supersonic Wings, Report 2: An Approximate Treatment of Some Simple Three-Dimensional Cases. Cornell Aeron. Lab. Rep. CAL/ CM-470, CAL-l-E-1 (1948)
BIOT, M. A.: Aeroelastic Stability of Supersonic Wings, Report 3: General Method for the Two-Dimensional Case and its Application to the Chordwise Divergence of a Biconvex Section. Cornell Aeron. Lab. Rep. CAL/CM-506, CAL-1 -E- 1 (1948)
BIOT, M. A.: Divergence of Supersonic Wings Including Chordwise Bending. J. Aeron. Sci. Bd.23 (1956) S. 237–251
LIN, H.; PIAN, T. H.: Effect of Structural Flexibility on Aircraft Loading. U. S. Airforce Techn. Rep. 6358 Part VIII (1953)
FRICK, C.W.; CHUBB, R. S.: The Longitudinal Stability of Elastic Swept Wings at Supersonic Speed. NACA Rep. 965 (1950)
LYON, H. M.; RIPLEY, J.: A General Survey of the Effects of Flexibility of the Fuselage, Tail Unit and Control Systems on Longitudinal Stability and Control. ARC R. & M.2415 (1945)
RODDEN, W.P.: Dihedral Effect of a Flexible Wing. J. Aeron. Sci. Bd. 2 (1965) S. 368–373
HEARMON, S. M.: Determination of the Effect of Wing Flexibility on Lateral Maneuverability and a Comparison of Calculated Rolling Effectiveness with Flight Results. NACA Rep.ARR4A28, L-525 (1944)
MAYO, A. P.; WARD, J.F.: Flight Investigation and Analysis of the Wing Deformations on a Swept-Wing Bomber during Rolling Maneuvers. NACA RM L56C23a (1956)
DUGUNDJI, J.; CRISP, J. D.: On the Aeroe.lastic Characteristics of Low-Aspect-Ratio Wings with Chordwise Deformations. USAF Office of Scientific Res. Techn. Note 59–787 (1959)
MARTIN, D. J.; WATKINS, C. E.: Transonic and Supersonic Divergence Characteristics of Low-Aspect-Ratio Wings and Controls. IAS Rep. 59–58 (1958)
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Försching, H.W. (1974). Statische aeroelastische Probleme. In: Grundlagen der Aeroelastik. Springer, Berlin, Heidelberg. https://doi.org/10.1007/978-3-642-48285-4_5
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