Comparative Study of Forward Wingtip Fence and Rearward Wingtip Fence on Wing Airfoil Eppler E562

S. Hariyadi, S. Sutardi, W. A. Widodo, B. J. Pitoyo
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引用次数: 1

Abstract

The perfect wing is a dream that many airplanes has manufactured have been striving to achieve since the beginning of the airplane design. There are some aspect that most influence in aircraft design lift, drag, thrust, and weight. The combination of these aspects leads to a decrease in fuel consumption, which reduces pollution in our atmosphere and increase in economic revenue. One way to improve aircraft performance is to modify the tip of the wing geometry, which has become a common sight on today’s airplanes. With computational programs, the effects on drag due to wingtip devices can be previewed. This research was done numerically by using turbulence model k-ω SST. Reynolds number in this research was 2,34 x 10 4 with angle of attacks are 0o, 2o, 4o, 6o, 8o, 10o, 12o, 15o, 17o and 19o. The model specimen is wing airfoil Eppler 562 with winglets. Two types of wingtips are used: forward and rearward wingtip fence. From this study, it was found that wingtip fence reduced the strength of vorticity magnitude on the x axis compared to plain wings. The leakage of fluid flow effect at the leading edge corner of the wingtip, giving pressure gradient and slightly shifting towards the trailing edge. this occurs in the plain wing and rearward wingtip fence but does not occur in the forward wingtip fence..
翼型Eppler E562前翼尖和后翼尖翼尖挡板的比较研究
完美的机翼是许多飞机从设计之初就一直在努力实现的梦想。有一些方面对飞机设计影响最大升力、阻力、推力和重量。这些方面的结合导致燃料消耗的减少,从而减少了大气中的污染,增加了经济收入。提高飞机性能的一种方法是修改机翼的尖端几何形状,这在今天的飞机上已经成为一个常见的景象。通过计算程序,可以预览翼尖装置对阻力的影响。本文采用k-ω海温湍流模型进行了数值模拟。本研究的雷诺数为2,34 × 104,攻角分别为0、20、40、60、80、100、120、150、170和190。模型标本是带小翼的翼型埃普勒562。使用两种类型的翼尖:前翼尖和后翼尖围栏。从本研究中发现,翼尖围篱与普通机翼相比,降低了x轴涡量强度。流体在翼尖前缘角的泄漏流动作用,产生压力梯度并向尾缘轻微移动。这种情况发生在平翼和后翼尖围栏中,但不会发生在前翼尖围栏中。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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