旋流单线态氧气发生器的研究

B. Vyskubenko, I. M. Krukovsky, A. A. Adamenkov, Y. Deryugin, S. Ilyin, E. Kudryashov
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引用次数: 5

摘要

本文介绍了带扭转气溶胶流的单线态氧气发生器(TA-SOG)的研究结果。实验结果表明,TA-SOG的输出值超过了出版物中已知的其他类型sog的输出值。即使在压力超过100托、速度超过100米/秒的情况下,TA-SOG流出物在广泛的参数范围内也是无气溶胶的。化学效率最高可达70%。电抗器截面电子能量通量超过1.5 kW/cm2。测量到的单线态氧(SO)产率在距离反应器出口超过10厘米的测量点的12- Torr压力下约为60%。氯的利用率超过90%。所有列出的参数都是在出口没有任何缓冲的情况下获得的。它直接连接到COIL超音速喷嘴,不用担心BHP结转。因此,TA-SOG输出和喷嘴输入压力几乎相等,没有额外的喷射器。建立的TA-SOG模型提供了SOG出口废液的大气压力,充分简化了再循环系统的设计。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Investigation of the Singlet Oxygen Generator with the Twisted Flow
The results of the Singlet Oxygen Generator with Twisted Aerosol flow (TA-SOG) investigations are presented. The experimental results demonstrate TA-SOG output values exceed those of other types SOGs known from publications. TA-SOG outflow is aerosol-free all over the broadly ranged parameters even at a gas pressure over 100 Torr and velocity 100 m/sec. The maximal chemical efficiency was obtained as 70 percent. The reactor cross-sectional electronic energy flux exceeds 1.5 kW/cm2. Measured Singlet Oxygen (SO) yield was approximately 60 percent at the pressure 12- Torr at the measurement point distant by more than 10 cm of reactor outlet. Chlorine utilization exceeds 90 percent. All the listed parameters were obtained without any buffer at its outlet. It is directly connected to COIL supersonic nozzle not fearing BHP carryover. So, TA-SOG output and nozzle input pressures are almost equal without additional ejectors. TA-SOG model created provides atmospheric pressure of the spent solution at SOG outlet, which simplifies sufficiently the re-circulation system design.
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