基于Nasa-Foilsim数据训练的神经网络支持的元启发式人工蜂群算法翼型优化

Şeyma Doğan, Cemil Altin
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摘要

在本研究中,利用Foilsim数据和优化算法对难以计算和确定的翼型进行了优化。美国国家航空航天局(NASA)提供的Foilsim数据被许多研究人员使用,特别是在模型飞机的开发中,已提供用于飞机机翼形状优化。虽然Foilsim对于设计人员来说是一个非常有用的仿真程序,但是由于它的web环境,它不能有效地用于优化过程。在翼型形状优化中,升力方程需要用到升力系数。升力系数取决于翼型的角度、弧度和厚度,计算升力系数是困难的,需要大量的数学方程或实际的实验。利用Foilsim数据和优化算法(Artificial Neural Networks: ANN, Artificial Bee Colony: ABC),对难以确定和计算的翼角、弧度和厚度值进行了估计,并进行了数值对比实验。(固定升力,固定速度,固定翼面积)。实验结果表明,该方法对翼型优化设计具有重要意义。总之,在本研究中,利用Foilsim数据和优化算法,提供设计者确定的升力,确定最合适的机翼角度、弧度、厚度值,这些都是难以确定和计算的,使飞机生产高效。用户将期望升力值输入ABC优化算法,并找到期望升力值所需的机翼特性。
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Airfoil Optimization with Metaheuristic Artificial Bee Colony Algorithm Supported by Neural Network Trained Using Nasa-Foilsim Data
In this study, the wing profile, which is difficult to calculate and determine, has been optimized with the help of Foilsim data and optimization algorithms. Foilsim data provided by NASA (National Aeronautics and Space Administration) and used by many researchers, especially in developing model airplanes, has been provided to use in aircraft wing shape optimization. Although Foilsim is a very useful simulation program for designers, it cannot be used effectively in optimization processes due to its web environment. Lift coefficient is needed for Lift equation in airfoil shape optimization. Lift coefficient depends on angle, camber, and thickness of airfoil Calculation of Lift coefficient is difficult and needs heavy mathematical equations or real experiments. By using Foilsim data and optimization algorithm (Artificial Neural Networks: ANN, Artificial Bee Colony: ABC), wing angle, camber and thickness values, which are difficult to determine and calculate, were estimated and comparative experiments of the values were made. (Fixed Lift, Fixed Speed, Fixed Wing Area). Experimental results have shown that it is a useful study for airfoil shape optimization. In short, in this study, by using the Foilsim data and the optimization algorithm to provide the lifting force determined by the designer, the most suitable angle, camber, thickness values of the wing, which are difficult to determine and calculate, are determined to enable the production of efficient aircraft. The user enters the desired lift value into the ABC optimization algorithm and finds the required wing properties for the desired lift value.
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