Multidisciplinary Design of an Electrically Powered High-Lift System

IF 1.9 3区 工程技术 Q3 ENGINEERING, MECHANICAL
N. Maroldt, Stefanie Lohse, J. Seume, Matthias Kalla, B. Ponick
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引用次数: 0

Abstract

To date, design processes for electrically powered compressor are mainly based on separate processes for each individual component. Whereas the blading is often designed by an integrated aerodynamic and mechanical design optimization, additional components such as the electrical machine are usually not included. These approaches neglect the interactions of the individual components, which can influence the system performance. This paper demonstrates a multidisciplinary design approach, combining an optimization approach for a compressor stage and an electrical machine. The automated optimization process is based on an evolutionary algorithm, evaluating each individual of a population in terms of aerodynamic performance, structural integrity and performance of the electrical machine. This approach is applied to the design of a mixed-flow compressor for active high-lift applications in aircraft. The results suggest that the overall system efficiency is mainly influenced by the compressor stage, whereas the system mass is dominated by the electrical components which highlights the need to combine both optimization approaches. Key design parameters of high power-density electrical-machine designs are identified. A comparison between a previous compressor-only optimization and a new design based on the new multidisciplinary optimization confirms the improvements the latter optimization approach yields.
电动大扬程系统的多学科设计
迄今为止,电动压缩机的设计过程主要基于每个单独部件的单独过程。叶片通常通过集成的空气动力学和机械设计优化进行设计,但通常不包括电机等附加部件。这些方法忽略了单个组件的相互作用,这可能会影响系统性能。本文展示了一种多学科设计方法,将压缩机级和电机的优化方法相结合。自动化优化过程基于进化算法,根据空气动力学性能、结构完整性和电机性能评估群体中的每个个体。该方法应用于飞机主动高升程应用的混流式压缩机的设计。结果表明,整体系统效率主要受压缩机级的影响,而系统质量主要受电气部件的影响,这突出了将两种优化方法结合起来的必要性。确定了高功率密度电机设计的关键设计参数。先前的仅压缩机优化与基于新的多学科优化的新设计之间的比较证实了后一种优化方法所产生的改进。
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来源期刊
CiteScore
4.70
自引率
11.80%
发文量
168
审稿时长
9 months
期刊介绍: The Journal of Turbomachinery publishes archival-quality, peer-reviewed technical papers that advance the state-of-the-art of turbomachinery technology related to gas turbine engines. The broad scope of the subject matter includes the fluid dynamics, heat transfer, and aeromechanics technology associated with the design, analysis, modeling, testing, and performance of turbomachinery. Emphasis is placed on gas-path technologies associated with axial compressors, centrifugal compressors, and turbines. Topics: Aerodynamic design, analysis, and test of compressor and turbine blading; Compressor stall, surge, and operability issues; Heat transfer phenomena and film cooling design, analysis, and testing in turbines; Aeromechanical instabilities; Computational fluid dynamics (CFD) applied to turbomachinery, boundary layer development, measurement techniques, and cavity and leaking flows.
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