Harianingsih Harianingsih, N. Saksono, E. F. Karamah, Z. Zakaria
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引用次数: 0
摘要
硝酸盐被用作肥料,为植物补充营养。阳极等离子体电解技术是一种有效且环保的硝酸盐化合物固氮解决方案。本研究旨在确定在阳极注入空气为原料的等离子体电解中控制电压和功率对硝酸合成的影响。使用的材料为0.02 M K2SO4电解质溶液,使用的电极为钨和不锈钢形式,使用硝酸盐试剂进行硝酸盐测试。结果表明,在400 W条件下,最佳速率为0.8 mg -1,硝态氮生成量为1889 mg -1。而在500 W和600 W条件下,1 L man -1与硝酸盐的最佳生成量分别为2213 mg L-1和2453 mg L-1。在20139 au、28540 au、18023 au、30863 au、12547 au、49800 au条件下,N、N2*、N2+、•OH、•H和•O的最优发射率为0.8 L men-1 400 W 700 V。注入空气会增加等离子体区的氧气输入,产生反应性物质•O,氮气产生反应性物质N, N2*、N2+生成NO。生成的NO化合物可氧化为NO2, NO2与活性物质•OH反应生成硝酸盐。
The Effect of Power on Nitrate Synthesis and The Emission Intensities of Reactive Species Using Anodic Plasma Electrolysis
Nitrates are used as fertilizer to fulfill nutrients for plants. Anodic plasma electrolysis technology can be an effective and environmentally friendly solution in nitrogen fixation into nitrate compounds. This research aimed to determine the effect of controlling voltage and power in nitrate synthesis using plasma electrolysis with air as the raw material injected at the anode. The material used is an electrolyte solution of 0.02 M K2SO4, the electrodes used are in the form of tungsten and stainless steel, and a nitrate reagent is used for the nitrate test. The results of the study showed that at 400 W, the optimal rate was 0.8 L men-1 with 1889 mg L-1 of nitrate formed. While at 500 W and 600 W, the optimal rate of 1 L men-1 with nitrate formed was 2213 mg L-1 and 2453 mg L-1. The emission intensities of reactive species N, N2*, N2+,•OH, •H, and •O at an optimal rate of 0.8 L men-1 400 W 700 V in 20139 au, 28540 au, 18023 au, 30863 au, 12547 au, 49800 au. The addition of air injection will increase the oxygen input into the plasma zone, which can produce reactive species •O and nitrogen produces reactive species N, N2*, N2+ forms NO. The formed NO compounds can be oxidized to NO2, and the reaction between NO2 and reactive species •OH forms nitrates.