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基于压缩电场的微波等离子体反应器设计

杜雨泓 李源媛 张曜 何涛 王林 苟徳梽 洪涛 唐正明

强激光与粒子束2025,Vol.37Issue(8):59-66,8.
强激光与粒子束2025,Vol.37Issue(8):59-66,8.DOI:10.11884/HPLPB202537.250059

基于压缩电场的微波等离子体反应器设计

Design of microwave plasma reactor based on compressed electric field

杜雨泓 1李源媛 1张曜 1何涛 2王林 1苟徳梽 1洪涛 1唐正明1

作者信息

  • 1. 西华师范大学电子信息工程工程学院,四川 南充 637009
  • 2. 四川信息职业技术学院,四川 广元 628017
  • 折叠

摘要

Abstract

Microwave plasma has shown significant advantages in the fields of materials synthesis and chemical catalysis due to its high electron density and power utilization efficiency.To solve the problem that the small reaction area of traditional reactor limits its large-scale application,a three-prism microwave plasma reactor structure is innovatively proposed based on the principle of compressed waveguide.The design adopts a three-port symmetric configuration and introduces a compressed waveguide structure inside the cavity to achieve effective superposition and enhancement of the electric field.In addition,the influence of the port positions and microwave phases on the reflection coefficient and electric field distribution characteristics inside the cavity is systematically analyzed by using the multi-physical field coupling calculation method.The results show that optimizing the port position can reduce the reflection coefficient and improve the efficiency of energy utilization,regulating the port phase can effectively enhance the superposition effect of the electric field,so that the electric field is concentrated and widely distributed in the area of the quartz tube,and the peak field strength is as high as 1.64×105 V/m,which can satisfy the excitation conditions of the large-area plasma,providing a reference for the subsequent research on microwave plasma chemical reaction.

关键词

等离子体/微波/矩形波导/反应器/相位

Key words

plasma/microwave/rectangular waveguide/reactor/phases

分类

信息技术与安全科学

引用本文复制引用

杜雨泓,李源媛,张曜,何涛,王林,苟徳梽,洪涛,唐正明..基于压缩电场的微波等离子体反应器设计[J].强激光与粒子束,2025,37(8):59-66,8.

基金项目

国家自然科学基金项目(62301449) (62301449)

微波能应用与电磁兼容技术创新团队项目(KCXTD2024-2) (KCXTD2024-2)

强激光与粒子束

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