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YUAN Ye, TIAN Leichao, GUO Cheng, ZHAO Qing. Spectral diagnosis of an arc jet actuator[J]. Chinese Optics. doi: 10.37188/CO.2022-0097
Citation: YUAN Ye, TIAN Leichao, GUO Cheng, ZHAO Qing. Spectral diagnosis of an arc jet actuator[J]. Chinese Optics. doi: 10.37188/CO.2022-0097

Spectral diagnosis of an arc jet actuator

doi: 10.37188/CO.2022-0097
Funds:  Supported by the Key R & D project of sichuan provincial department of science and technology (No. 2021YFG0369), the sichuan international science and technology innovation cooperation project (No. 2021YFH0057)
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  • Corresponding author: zhaoq@uestc.edu.cn
  • Accepted Date: 24 Aug 2022
  • Available Online: 24 Aug 2022
  • At present, the simulation research of arc actuator is only limited to obtaining the working characteristics of the plasma generated by the actuator, such as potential, pressure, temperature and velocity, while the plasma state is only limited to diagnosing its electron temperature and electron density by spectrum. The two are separated. This paper attempts to unify the two. Therefore, the arc jet plasma actuator designed here adopts the finite element method to solve the nonlinear multi physical equations. The working characteristics of the arc jet plasma actuator are numerically simulated, and the potential, pressure, temperature and velocity distributions inside the actuator are obtained. On this basis, the electron density is calculated, The simulation calculation model of the plasma state (electron temperature and electron density) of the actuator is obtained from the working condition of the actuator. Then the spectral diagnosis of jet plasma is carried out by using the emission spectral diagnosis method, and the electron density of plasma is calculated by using the intensity ratio method of discrete spectral lines. The diagnostic experiment of arc plasma actuator shows that the maximum electron temperature is 10505.8 k and the maximum electron density is 5.75 e + 22 m−3. For the plasma electron temperature and plasma density under different working conditions, the experimental and simulation results increase with the increase of inlet gas flow and discharge current. It shows that our simulation model of plasma state is reasonable and applicable for our miniaturized arc jet actuator with high jet velocity. At the same time, it also shows that our unified consideration is basically successful. Of course, there are still areas worthy of further improvement.

     

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