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Betz, A., (1919). Schraubenpropeller mit geringstem energieverlust. Gottinger Nachr., Germany.

Coleman, R. P., Feingold, A. M. and Stempin, C. W., (1945). 'Evaluation of the induced velocity field of an idealised helicopter rotor'. N.A.C.A. A.R.R,. No. L5E10.

Glauert, H., (1926a). 'The analysis of experimental results in the windmill brake and vortex ring states of an airscrew'. ARCR R&M No. 1026.

Glauert, H., (1926b). 'A general theory of the autogyro'. ARCR R&M No. 1111.

Glauert, H., (1935a). 'Airplane propellers'. Aerodynamic theory (ed. Durand, W. F.). Julius Springer, Berlin, Germany.

Glauert, H., (1935b). 'Windmills and fans'. Aerodynamic theory (ed. Durand, W. F.). Julius Springer, Berlin, Germany.

Goankar, G. H. and Peters, D. A., (1988). 'Review of dynamic inflow modelling for rotorcraft flight dynamics'. Vertica, 2, 3, 213-242.

Goldstein, S., (1929). 'On the vortex theory of screw propeller'. Proc. Roy. Soc. (A), 123,440.

HaQuang, N. and Peters, D. A., (1988). 'Dynamic inflow for practical applications'. J. Am. Heli. Soc., Technical Note.

Himmelskamp, H., (1945). Profile investigations on a rotating airscrew. Ph.D. Thesis, Gottingen University, Germany.

Hoerner, S. F., (1965). 'Pressure drag on rotating bodies'. Fluid dynamic drag (ed. Hoerner, S. F.), pp. 3-14.

Jones, W. P., (1945). 'Aerodynamic forces on wings in non-uniform motion', ARCR R&M 2117.

Kinner, W., (1937). 'The principle of the potential theory applied to the circular wing'. Ing. Arch., VIII, 47-80. (Translated by Flint, M., R.T.P. Translation No. 2345.)

Lindenburg, C., (1996). 'Results of the PHATAS-III development', International Energy Agency, 28th Meeting of Experts, Lyngby, Denmark.

Lock, C. N. H., (1924). 'Experiments to verify the independence of the elements of an airscrew blade'. ARCR R&M No. 953.

Loewy, R. G., (1957). 'A two-dimensional approach to the unsteady aerodynamics of rotary wings'. J. Aerospace Sci., 24, 2.

Mangler, K. W. and Squire, H. B., (1950). 'The induced velocity field of a rotor'. ARCR R&M No. 2642.

Meijer Drees, J., (1949). A theory of airflow through rotors and its application to some helicopter problems'. J. Heli. Ass. G.B., 3, 2, 79-104.

Miller, R. H., (1964). 'Rotor blade harmonic air loading'. AIAA Journal, 2, 7.

0ye, S. (1992). 'Induced velocities for rotors in yaw'. Proceedings of the Sixth IEA Symposium. ECN, Petten, Holland.

Peters, D. A., Boyd, D. D. and He, C. J., (1989). 'Finite state induced flow model for rotors in hover and forward flight'. J. Amer. Heli. Soc., 34, 4,5-17.

Pitt, D. M. and Peters, D. A., (1981). 'Theoretical prediction of dynamic inflow derivatives'. Vertica, 5, 21-34.

Ronsten, G., (1991). 'Static pressure measurements in a rotating and a non-rotating 2.35 m wind turbine blade'. Proceedings of the EWEC Conference.

Schepers, J. G. and Snel, H., (1995). 'Joint investigation of dynamic inflow effects and implementation of an engineering method'. Report: ECN-C-94-107. ECN, Petten, Holland.

Snel, H. et al., (1993). 'Sectional prediction of three-dimensional effects for stalled flow on rotating blades and comparison with measurements'. Proceedings of the EWEC Conference.

Suzuki, A. and Hansen, A. C., (1999). 'Generalized dynamic wake model for Yawdyn'. AIAA Wind Symposium, AIAA-99-0041.

Theodorsen, T., (1935). 'General theory of aerodynamic instability and the mechanism of flutter'. NACA Report 496.

Tuckerman, L. B., (1925). 'Inertia factors of ellipsoids for use in airship design', NACA Report Number 210.

Van Bussel, G. J. W., (1995). The aerodynamics of horizontal-axis wind-turbine rotors explored with asymptotic expansion methods, Ph.D. Thesis, Delft University of Technology, Holland.

Wagner, H., (1925). 'Über die Entstahung des dynamischen Auftriebes von Tragflügel', Zeischrift für angewandte Mathematik und Mechanik, 5,1.

Wilson, R. E. and Lissaman, P. B. S., (1974). 'Applied aerodynamics of wind-power machines'. NTIS: PB-238-595, Oregon State University, USA.

Wood, D. H., (1991). 'A three-dimensional analysis of stall-delay on a horizontal-axis wind turbine'. J. Wind Eng. Indl. Aerodyn., 37,1-14.

Young, A. D. and Squire, H. B., (1938). R&M No. 1838.

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