惯性传感电液动力装置的数值研究与实验研究

T. Nguyen, Ngoc Van Tran, T. X. Dinh, C. Tran, V. Dau, T. D. Chu, Ha Nguyen Hoang, T. Bui
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引用次数: 0

摘要

本文提出了一种基于离子风电晕放电的电流体动力陀螺仪的多物理场模拟与实验研究。该装置由多个点环电极组成,可产生用于惯性传感应用的合成离子射流。同时,射流的剩余电荷被外环电极中和,以保证离子风在装置通道内循环时的稳定。首先通过数值模拟论证了该装置内部射流的产生和循环的工作原理,然后通过实验验证了该装置的可行性和稳定性。结果表明,基于离子风电晕放电的方法与新结构相结合,使该装置具有鲁棒性和低能耗。
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Numerical Study and Experimental Investigation of an Electrohydrodynamic Device for Inertial Sensing
We present a multi-physics simulation associated with experimental investigation for an electrohydrodynamic gyroscope based on ion wind corona discharge. The present device consisting of multiple point-ring electrodes generates a synthetic jet flow of ions for inertial sensing applications. Meanwhile the residual charge of jet is neutralized by an external ring electrode to guarantee the ion wind stable while circulating inside the device's channels. The working principle including the generation and then circulation of jet flow within the present device is firstly demonstrated by a numerical simulation and the feasibility and stability of the device are then successfully investigated by experimental work. Results show owing to the ion wind corona discharge based approach associated with new configuration, the present device is robust and consumes low energy.
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