利用鸭翼偏转效应改善飞机失速延迟性能的水洞流动可视化

S. Wibowo, Sutrisno, T. A. Rohmat
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引用次数: 6

摘要

战斗机的优点之一是能够进行机动动作。改变沿机身的气流对于创造机动能力以避免失速变得非常重要。在机身上加装鸭翼可以改变气流,从而延缓失速的发生。鸭翼的配置将决定飞机能在多大程度上保持不变,以避免在大迎角下坠落。本研究将探讨鸭翼转角的配置如何优化鸭翼的下洗流和沿主翼的流动相互作用,以保持流线和延迟失速。利用水洞的可视化方法,可以直观地给出所发生的气动力的详细结果。利用计算流体力学(CFD)计算方法对实验数据进行验证,得到准确的结果。结果表明,调整偏转角度可以延缓飞机失速的发生。鸭翼转角300-400时可延迟失速至最大迎角700。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Water Tunnel Flow Visualization Due to Canard Deflection Effect on Aircraft to Improve Stall Delay Performance
One of the advantages of the fighter is the ability to perform maneuver movements. Modification of flow along the fuselage becomes very important in creating the ability to maneuver to avoid the stall. Addition of canard on the fuselage will modify the flow so that it can delay the occurrence of the stall. The canard configuration will determine the extent to which the aircraft can hold on so as not to fall at a high angle of attack. In this study will examine how the configuration of canard deflection angle can optimize the downwash flow of the canard and the flow interaction along the main wing to keep the streamline and delay the stall. The use of visualization method using water tunnel will give detail result visually or aerodynamic force that happened. Also, the use of computational fluid dynamics (CFD) computation method is used as validation of experimental data to obtain accurate results. The results show that the deflection angle setting can delay the occurrence of aircraft stalls. At the canard deflection angle of 300-400could delay the stall until the maximum angle of attack 700.
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