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Automatically Generated Aeroelastic Analysis Models including Physics Based Control Surface Representation

机译:自动生成的空气弹性分析模型,包括基于物理的控制表面表示

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Defence budget cuts and increasing competition lead to new challenges for the military aviation industry. Due to this, new aircraft have to be developed in fewer design loops and with reduced engineering costs. Thus, it is important to have access to reliable engineering data already during the conceptual design phase. To provide to reliable data from the concept phase for further detailed design, a high modelling effort usually is necessary. Automated analysis model generation enables the usage of multi fidelity simulation in early design phases due to lowering the analysis model generation expenses. The core of this approach for an integrated multi-fidelity multidisciplinary design analysis and optimization platform is a parametric geometry definition. This geometry is generated by the in-house program Descartes. From the geometry different analysis models can be generated with additional information from a central database. The focal point of this publication is the fully automated generation of simulation models for aeroelastic analysis and multidisciplinary design optimization. These capabilities were recently enhanced with physics based control surface modelling by using a detailed parametric geometry definition. Through this information concerning the flight performance of a new design or the aeroelastic effectiveness of a control surfaces is available.
机译:国防预算削减和越来越多的竞争导致军航行业的新挑战。由于这一点,必须在更少的设计循环和降低的工程成本下开发新飞机。因此,重要的是在概念设计阶段期间已经访问了可靠的工程数据。为了提供来自概念阶段的可靠数据,以进一步详细设计,通常需要高建模努力。自动分析模型生成使得能够在早期设计阶段使用多保真仿真,从而降低分析模型生成费用。这种方法的核心用于集成的多保真多学科设计分析和优化平台是一个参数几何定义。该几何体由内部程序生成笛卡尔。从几何图形中,可以使用中央数据库的附加信息生成不同的分析模型。本出版物的焦点是空气弹性分析和多学科设计优化的全自动生成仿真模型。最近通过使用详细的参数几何定义来增强基于物理的控制表面建模的这些功能。通过该信息,关于新设计的飞行性能或控制表面的空气弹性效果可用。

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