Effective Conductivity Model for the Time-Domain Simulation of Active Microwave Pulse Compressors

Active microwave pulse compressors (MPCs) have been under study during the last decades. Various methods are presented in the literature for the steady-state design of MPCs. On the contrary, studies on the optimization of active MPCs in time are very limited because it is rather cumbersome to simulate the time-dependent operation of the gas discharge tube (GDT). In this work, we propose a methodology to derive a time-dependent conductivity model for GDT by comparing simulation data with compressed pulses from experiments. The derived GDT model is used to demonstrate the effect of the MPC geometry on the compressed pulse shape and to show that the optimal steady-state design does not produce the highest amplitude pulse.

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Publication Details

Journal
IEEE Transactions on Plasma Science
Published
2025-03-28
DOI
https://doi.org/10.1109/tps.2025.3549155
Primary Topic
Particle accelerators and beam dynamics
Type
article
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article

Effective Conductivity Model for the Time-Domain Simulation of Active Microwave Pulse Compressors

Zisis C. Ioannidis, Stylianos P. Savaidis, Konstantinos E. Orfanidis
IEEE Transactions on Plasma Science
Particle accelerators and beam dynamics
article

Effective Conductivity Model for the Time-Domain Simulation of Active Microwave Pulse Compressors

Zisis C. Ioannidis, Stylianos P. Savaidis, Konstantinos E. Orfanidis
article en

Abstract

Active microwave pulse compressors (MPCs) have been under study during the last decades. Various methods are presented in the literature for the steady-state design of MPCs. On the contrary, studies on the optimization of active MPCs in time are very limited because it is rather cumbersome to simulate the time-dependent operation of the gas discharge tube (GDT). In this work, we propose a methodology to derive a time-dependent conductivity model for GDT by comparing simulation data with compressed pulses from experiments. The derived GDT model is used to demonstrate the effect of the MPC geometry on the compressed pulse shape and to show that the optimal steady-state design does not produce the highest amplitude pulse.

IEEE Transactions on Plasma ScienceVol. 53(5)
National and Kapodistrian University of Athens (GR), University of West Attica (GR)
Affordable and clean energy
Openalex Percentile: Top 92%
Particle accelerators and beam dynamics
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