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Modeling, design and optimization of electrodynamic zero-net mass-flux (ZNMF) actuators.

机译:电动零净质量通量(ZNMF)执行器的建模,设计和优化。

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摘要

Zero-net mass-flux (ZNMF) actuators have been used for flow control applications such as separation control, thermal management. Electrodynamic transduction has been employed implementing these actuators in the past. However, a systematic design and modeling approach has been absent. This work presents a first-principles-based low order model for electrodynamic zero-net mass-flux (ZNMF) actuators. The lumped element modeling approach is used to model the multi-energy domain coupled system.;The model developed was validated using prototype ZNMF actuators. A low cost, flexible, repeatable hybrid manufacturing technique was developed to realize these prototype actuators. Based on this model, the parameters that have the most impact on the actuator were identified. The model predicted the performance of several actuator configurations with less than 10 % error.;Several design trends and tradeoffs were presented to enable intelligent design of these actuators. The model was also used to formulate a constrained optimization of the electrodynamic actuator. The optimized actuator was fabricated and characterized. The optimized actuator demon stared at least 50 % higher output velocities as compared to the baseline actuator. The optimized actuator achieved nearly 35 m/s maximum output velocity. The optimized actuator had volume of 15 cm3, overall mass of 90 g and maximum input power of 900 mW.
机译:零净质量通量(ZNMF)执行器已用于流量控制应用,例如分离控制,热管理。过去已经采用电动换能来实现这些致动器。但是,缺少系统的设计和建模方法。这项工作为电动零净质量通量(ZNMF)执行器提供了基于第一原理的低阶模型。集总元件建模方法用于对多能量域耦合系统进行建模。;所开发的模型已使用原型ZNMF执行器进行了验证。开发了低成本,灵活,可重复的混合制造技术来实现这些原型执行器。基于该模型,确定了对执行器影响最大的参数。该模型预测了误差小于10%的几种执行器配置的性能。提出了几种设计趋势和折衷方案,以实现这些执行器的智能设计。该模型还用于制定电动执行器的约束优化。优化执行器的制造和特性。与基准致动器相比,优化的致动器恶魔将输出速度提高了至少50%。经过优化的执行器达到了近35 m / s的最大输出速度。优化的执行器体积为15 cm3,总质量为90 g,最大输入功率为900 mW。

著录项

  • 作者

    Agashe, Janhavi S.;

  • 作者单位

    University of Florida.;

  • 授予单位 University of Florida.;
  • 学科 Engineering Electronics and Electrical.
  • 学位 Ph.D.
  • 年度 2009
  • 页码 193 p.
  • 总页数 193
  • 原文格式 PDF
  • 正文语种 eng
  • 中图分类
  • 关键词

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