模拟浮冰增积后掠翼气动性能计算

Aung Ko Wynn, Cao Yi Hua
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引用次数: 1

摘要

本文讨论了在亚音速马赫数条件下,对飞机后掠翼进行了模拟和不模拟5分钟时间冰积累的计算研究。评估了升力系数、阻力系数和压力系数的气动性能变化。在马赫数为0.4758、雷诺数为5.61×106的条件下进行计算,得到了模拟5分钟时间积冰情况下和不考虑情况下飞机后掠翼周围的流场。飞机的机翼呈冰状,延伸到机翼的整个跨度。在迎角- 2 ~ 16度范围内,研究了飞机后掠翼在有冰和没有冰的情况下的气动性能。本计算研究基于商用Fluent 6.3.26代码,采用单方程Spalart-Allmaras(S-A)湍流模型和二阶迎风差分求解一组控制方程。CFD计算还可以准确预测到失速前升力和阻力系数的气动性能变化。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Computation of aerodynamic performance about a swept wing with simulated rime ice accretion
This paper deals with the computational studies carried out on the aircraft swept wing with and without a simulated 5 minutes rime ice accretion at subsonic Mach number conditions. The aerodynamic performances changes of lift coefficients, drag coefficients and pressure coefficients were evaluated. The computations were carried out at Mach number 0.4758 with Reynolds number 5.61×106 conditions to obtain the flow field around the aircraft swept wing with and without a simulated 5 minutes rime ice accretion. The aircraft wing with rime ice shape was extended across the entire span of the wing. The aerodynamic performance of the aircraft swept wing with and without ice accretion on the angle of attack range −2 to 16 degrees has also been investigated. This computational study is based on the commercial Fluent 6.3.26 code, was used for solving the set of governing equations using the one equation Spalart-Allmaras(S-A) turbulence model and second order upwind differencing. The CFD computation can also accurately predict the aerodynamic performance changes of lift and drag coefficients until up to stall.
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