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Joule heating flow control methods for high-speed flows

机译:用于高速流动的焦耳加热流量控制方法

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摘要

Joule heating is the generation of heat by the passage of current through a conductor. This is a review of a group of flow control methods that employ Joule heating to do so and can collectively be called energy deposition flow control methods. The energy deposition flow control methods discussed are surface plasma actuators, laser energy deposition and microwave generated plasma. These type of actuation methods are of particular interest for applications to high-speed flows. Conventional, mechanical actuation methods can be problematic in supersonic/hypersonic use as they require large forces to move and do not have fast enough response times depending on the application. Energy depositing actuators overcome these two problems as they have no moving parts and the response times can be in nanoseconds. This promising application to high-speed flows is one of the main driving factors behind the research in energy deposition flow control technologies. This review brings together the fundamental physics behind the operation of such methods. Both the fundamental characteristics of the flow control methods as well as the experience of their applications in high-speed flows is covered. A brief discussion of potential areas that require further study for each type of actuator/technique is also provided. Finally, a discussion of the possible future applications of energy deposition flow control methods is presented.
机译:焦耳热是通过电流通过导体而产生的热量。这是对一组采用焦耳加热的流量控制方法的综述,可以统称为能量沉积流量控制方法。讨论的能量沉积流控制方法是表面等离子体致动器,激光能量沉积和微波产生的等离子体。这些类型的致动方法特别适用于高速流动。传统的机械致动方法在超音速/人身使用中可能会出现问题,因为它们需要很大的力才能移动,并且根据应用的不同,响应时间也不够快。储能执行器克服了这两个问题,因为它们没有活动部件,响应时间可以以纳秒为单位。这种对高速流的有前途的应用是能量沉积流控制技术研究背后的主要驱动因素之一。这篇综述汇集了这种方法操作背后的基本物理学。涵盖了流量控制方法的基本特征以及它们在高速流量中的应用经验。还简要介绍了可能需要对每种类型的执行器/技术进行研究的潜在领域。最后,讨论了能量沉积流控制方法的未来可能应用。

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