大气非热微等离子体致动器的特性

K. Shimizu, Y. Mizuno, M. Blajan
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引用次数: 0

摘要

研制了μm尺寸的等离子体致动器和微等离子体致动器,并对其进行了研究。由于μm的放电间隙,微等离子体驱动器可以在小于2 kVpp的较低电压下驱动。这种低电压很容易由半导体开关控制。放电诊断包括放电电压、能量和臭氧生成的测量。研究了发射光谱以确定微等离子体的特性。采用粒子图像测速法(PIV)测量了微等离子体致动器诱导的气流。香烟示踪颗粒采用亚微米直径。采用YVO4 532 nm激光照射。通过驱动微等离子体致动器,产生0.1 m/s左右的气流,其方向由半导体开关控制。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Characteristics of atmospheric non-thermal microplasma actuator
In this study, μm-size plasma actuator, microplasma actuator was developed and investigated for active flow control. Microplasma actuator could be driven by relatively low voltage less than 2 kVpp due to the μm discharge gap. Such low voltage is easily controlled by semiconductor switches. Discharge diagnostics included measurements of discharge voltage, energy, and ozone generation. Emission spectra were also investigated to identify the microplasma characteristics. Air flow induced by the microplasma actuator was measured by the Particle Iimage Velocimetry (PIV) method. Incense smoke sub-micron diameter was used for tracer particles. Nd YVO4 532 nm laser was used for irradiation. By driving the microplasma actuator, air flow on the order of 0.1 m/s was generated and its direction was controlled by semiconductor switches.
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