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Electromagnetic optimisation of a 2.45GHz microwave plasma source operated at atmospheric pressure and designed for hydrogen production

机译:2.45GHz微波等离子体源的电磁优化在大气压下操作,专为氢气生产而设计

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This paper presents the partial electromagnetic optimisation of a 2.45 GHz cylindrical-type microwave plasma source (MPS) operated at atmospheric pressure. The presented device is designed for hydrogen production from liquid fuels, e.g. hydrocarbons and alcohols. Due to industrial requirements regarding low costs for hydrogen produced in this way, previous testing indicated that improvements were required to the electromagnetic performance of the MPS. The MPS has a duct discontinuity region, which is a result of the cylindrical structure located within the device. The microwave plasma is generated in this discontinuity region. Rigorous analysis of the region requires solving a set of Maxwell equations, which is burdensome for complicated structures. Furthermore, the presence of the microwave plasma increases the complexity of this task. To avoid calculating the complex Maxwell equations, we suggest the use of the equivalent circuit method. This work is based upon the idea of using a Weissfloch circuit to characterize the area of the duct discontinuity and the plasma. The resulting MPS equivalent circuit allowed the calculation of a capacitive metallic diaphragm, through which an improvement in the electromagnetic performance of the plasma source was obtained.
机译:本文介绍了在大气压下操作的2.45 GHz圆柱型微波等离子源(MPS)的部分电磁优化。所提出的装置专为液体燃料产生的氢生产而设计,例如,碳氢化合物和醇。由于以这种方式生产的氢成本低的工业要求,之前的测试表明,需要改进MPS的电磁性能。 MPS具有管道不连续区域,其是位于装置内的圆柱形结构的结果。在该不连续区域中产生微波等离子体。对该地区的严格分析需要求解一组麦克斯韦方程,这对于复杂结构是繁重的。此外,微波等离子体的存在增加了该任务的复杂性。为避免计算复杂的麦克斯韦方程,我们建议使用等效电路方法。这项工作基于使用Weissfloch电路来表征管道不连续性和等离子体的区域的想法。所得到的MPS等效电路允许计算电容性金属隔膜,通过该电容金属隔膜通过该电容性金属隔膜获得等离子体源的电磁性能的改善。

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