Formation of the charged droplet cloud and corona discharge between the cloud and a grounded electrode

T. Sugimoto, S. Tanaka, Y. Higashiyama, K. Asano
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引用次数: 13

Abstract

The formation of a charged-droplet cloud with high charge density and the corona discharge characteristics between the cloud and a grounded electrode have been investigated. To form a charged-droplet cloud an electrostatic spray system with an airless nozzle is adopted. The spray system consists of an airless nozzle, a ring electrode and a blower. Since an airless nozzle can ejected large amount of droplets at once, a high density cloud can be created. Droplets in the cloud are electrified by means of induction phenomenon with the ring electrode. A blower is used to promote the transportation of the charged droplets and to grow in the charge density of the cloud. As the air-flow is faster, the charge amount of the ejected droplets and the charge density of the cloud increase. The air flow also influences the corona discharge from the grounded electrode to the charged cloud, extremely. The discharge current with air flow becomes several times larger than that without air flow, because the air flow prevents the deposition of charged droplets on the grounded electrode and no small corona discharge from the deposited droplets occurs. It suggests that the air flow is quite effective to make the discharge between a charged-droplet cloud and a grounded electrode.
带电液滴云的形成和云与接地电极之间的电晕放电
研究了高电荷密度带电液滴云的形成及其与接地电极之间的电晕放电特性。为了形成带电液滴云,采用了带无气喷嘴的静电喷雾系统。该喷雾系统由无气喷嘴、环形电极和鼓风机组成。由于无气喷嘴可以一次喷射出大量的液滴,因此可以形成高密度的云。云中的液滴通过环形电极的感应现象带电。鼓风机用于促进带电液滴的运输,并增加云的电荷密度。随着气流的加快,喷射液滴的电荷量和云的电荷密度增加。气流对从接地电极到带电云的电晕放电也有极大的影响。有气流的放电电流比无气流的放电电流大几倍,因为气流阻止了带电液滴在接地电极上的沉积,沉积的液滴不会产生小的电晕放电。结果表明,空气流动对带电液滴云和接地电极之间的放电是非常有效的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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