基于并行计算的BWB飞机优化设计

K. Anisimov, A. Savelyev, I. A. Kursakov, A. Lysenkov, P. Prakasha
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引用次数: 2

摘要

对混合翼体(BWB)进行了短舱形状优化。优化过程是基于雷诺平均Navier-Stokes方程的数值计算。针对AGILE项目中制定的Top Level Aircraft Requirements,设计了推进系统。优化过程分为两步。首先,对隔离舱进行了设计和优化,以适应巡航工况。这一步骤列于第3段。第二步,优化机舱在机身上的位置。为了找到最优解,采用了基于代理的高效全局优化算法。实现了结构计算网格的自动生成,使优化算法有效地工作。整个过程是在AGILE项目中开发的第三代多学科优化技术的背景下考虑的。在项目过程中,应针对新飞机配置实施新技术,并选择新技术作为AGILE技术应用的测试用例。结果表明,该优化技术满足所有要求,适合在敏捷项目中使用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Optimization of BWB Aircraft Using Parallel Computing
Nacelle shape optimization for Blended Wing Body (BWB) is performed. The optimization procedure is based on numerical calculations of the Reynolds–averaged Navier–Stokes equations. For the Top Level Aircraft Requirements, formulated in AGILE project, the propulsion system was designed. The optimization procedure was divided in two steps. At first step, the isolated nacelle was designed and optimized for cruise regimes. This step is listed in paragraph 3. At second step the nacelles positions over airframe were optimized. To find the optimum solution, surrogate–based Efficient Global Optimization algorithm is used. An automatic structural computational mesh creation is realized for the effective optimization algorithm working. This whole procedure is considered in the context of the third generation multidisciplinary optimization techniques, developed within AGILE project. During the project, new techniques should be implemented for the novel aircraft configurations, chosen as test cases for application of AGILE technologies. It is shown that the optimization technology meets all requirements and is suitable for using in the AGILE project.
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