Spectroscopic Measurement of Active Species Generated in Streamer Discharge on Water Surface

T. Hayashi, Souhei Toyoda, Tomokazu Kanna, T. Sakugawa
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Abstract

There are many reports reporting chemically active species using underwater discharge plasma. Another method is to bubble in water to produce chemically active species. However, it is difficult to measure the active species by spectroscopy in the discharge in water. We generated chemically active species utilizing streamer discharge generated on the water surface and measured spectroscopic measurements. A magnetic pulse compression circuit was used to generate streamer discharge. For spectroscopic measurement, a high sensitive spectroscopy capable of time resolved spectroscopy was used. Discharge on the water surface randomly propagations, so it is difficult to perform spectroscopic measurement at a fixed point. Therefore, we could develop a discharge chamber that can control the direction of progress of the streamer in one direction, and we were able to perform stable spectroscopic measurements. Particularly chemically active species are OH, $\mathrm{H}\alpha, \mathrm{H}\beta$. The generation characteristics of these chemically active species were examined when the ground electrode was installed in the medium chamber and when it was installed outside the chamber. As a result, strong emission of OH radicals are observed at the high-speed rise of the pulse voltage.
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水面流光排放中活性物质的光谱测量
有许多报道利用水下放电等离子体研究化学活性物质。另一种方法是在水中起泡以产生化学活性物质。然而,利用光谱学方法测定水体排放物中的活性物质是很困难的。我们利用在水面上产生的流光排放和测量的光谱测量来产生化学活性物种。采用磁脉冲压缩电路产生流光放电。光谱测量采用了高灵敏度的时间分辨光谱。放电在水面上的传播是随机的,因此很难在一个固定点上进行光谱测量。因此,我们可以开发一个放电室,可以控制一个方向的拖光的进展方向,我们可以进行稳定的光谱测量。化学活性特别强的是OH, $\mathrm{H}\alpha, \mathrm{H}\beta$。当接地电极安装在介质腔内和安装在腔外时,研究了这些化学活性物质的产生特性。结果表明,在脉冲电压的高速上升过程中,OH自由基有很强的发射。
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