Modeling power flow in the induction cavity with a two dimensional circuit simulation

We have proposed a two dimensional (2D) circuit model of induction cavity. The oil elbow and azimuthal transmission line are modeled with one dimensional transmission line elements, while 2D transmission line elements are employed to represent the regions inward the azimuthal transmission line. The...

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Main Authors: Fan Guo, Wenkang Zou, Boyi Gong, Jihao Jiang, Lin Chen, Meng Wang, Weiping Xie
Format: Article
Language:English
Published: American Physical Society 2017-02-01
Series:Physical Review Accelerators and Beams
Online Access:http://doi.org/10.1103/PhysRevAccelBeams.20.020401
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spelling doaj-7f8f305e1f6c40f0b1e721ba5795f71c2020-11-25T01:21:32ZengAmerican Physical SocietyPhysical Review Accelerators and Beams2469-98882017-02-0120202040110.1103/PhysRevAccelBeams.20.020401Modeling power flow in the induction cavity with a two dimensional circuit simulationFan GuoWenkang ZouBoyi GongJihao JiangLin ChenMeng WangWeiping XieWe have proposed a two dimensional (2D) circuit model of induction cavity. The oil elbow and azimuthal transmission line are modeled with one dimensional transmission line elements, while 2D transmission line elements are employed to represent the regions inward the azimuthal transmission line. The voltage waveforms obtained by 2D circuit simulation and transient electromagnetic simulation are compared, which shows satisfactory agreement. The influence of impedance mismatch on the power flow condition in the induction cavity is investigated with this 2D circuit model. The simulation results indicate that the peak value of load voltage approaches the maximum if the azimuthal transmission line roughly matches the pulse forming section. The amplitude of output transmission line voltage is strongly influenced by its impedance, but the peak value of load voltage is insensitive to the actual output transmission line impedance. When the load impedance raises, the voltage across the dummy load increases, and the pulse duration at the oil elbow inlet and insulator stack regions also slightly increase.http://doi.org/10.1103/PhysRevAccelBeams.20.020401
collection DOAJ
language English
format Article
sources DOAJ
author Fan Guo
Wenkang Zou
Boyi Gong
Jihao Jiang
Lin Chen
Meng Wang
Weiping Xie
spellingShingle Fan Guo
Wenkang Zou
Boyi Gong
Jihao Jiang
Lin Chen
Meng Wang
Weiping Xie
Modeling power flow in the induction cavity with a two dimensional circuit simulation
Physical Review Accelerators and Beams
author_facet Fan Guo
Wenkang Zou
Boyi Gong
Jihao Jiang
Lin Chen
Meng Wang
Weiping Xie
author_sort Fan Guo
title Modeling power flow in the induction cavity with a two dimensional circuit simulation
title_short Modeling power flow in the induction cavity with a two dimensional circuit simulation
title_full Modeling power flow in the induction cavity with a two dimensional circuit simulation
title_fullStr Modeling power flow in the induction cavity with a two dimensional circuit simulation
title_full_unstemmed Modeling power flow in the induction cavity with a two dimensional circuit simulation
title_sort modeling power flow in the induction cavity with a two dimensional circuit simulation
publisher American Physical Society
series Physical Review Accelerators and Beams
issn 2469-9888
publishDate 2017-02-01
description We have proposed a two dimensional (2D) circuit model of induction cavity. The oil elbow and azimuthal transmission line are modeled with one dimensional transmission line elements, while 2D transmission line elements are employed to represent the regions inward the azimuthal transmission line. The voltage waveforms obtained by 2D circuit simulation and transient electromagnetic simulation are compared, which shows satisfactory agreement. The influence of impedance mismatch on the power flow condition in the induction cavity is investigated with this 2D circuit model. The simulation results indicate that the peak value of load voltage approaches the maximum if the azimuthal transmission line roughly matches the pulse forming section. The amplitude of output transmission line voltage is strongly influenced by its impedance, but the peak value of load voltage is insensitive to the actual output transmission line impedance. When the load impedance raises, the voltage across the dummy load increases, and the pulse duration at the oil elbow inlet and insulator stack regions also slightly increase.
url http://doi.org/10.1103/PhysRevAccelBeams.20.020401
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