Power Supply Chain with Series Insulation Structure for High Voltage Marx Pulse Generator

Insulation power supply (IPS) for multiple switches is a key issue for solid-state pulse generators (SSPG). The existing parallel structure for IPS is short of insulation similarity, which results in low insulation utilization ratio (IUR) and limited adjustability. Here we propose a power supply cha...

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Veröffentlicht in:IEEE transactions on power electronics 2024-06, Vol.39 (6), p.1-10
Hauptverfasser: Chen, Yue, Yao, Chenguo, Wu, Feiyu, Dong, Shoulong, Chen, Kai
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container_issue 6
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container_title IEEE transactions on power electronics
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creator Chen, Yue
Yao, Chenguo
Wu, Feiyu
Dong, Shoulong
Chen, Kai
description Insulation power supply (IPS) for multiple switches is a key issue for solid-state pulse generators (SSPG). The existing parallel structure for IPS is short of insulation similarity, which results in low insulation utilization ratio (IUR) and limited adjustability. Here we propose a power supply chain (PSC) with series insulation structure. The insulation circumstance of PSC maintains the same for each stage, which increases the minimum IUR to almost 90%, compared to the existing parallel structures. The proposed PSC requires purely diodes, capacitors and inductors to achieve IPS for switches, thus avoiding the customized cost and enhancing insulation adjustability. After analyzing the working principle of PSC, we evaluate the performance of PSC from the perspective of power supply and insulation. Finally, an 8-staged Marx SSPG prototype is developed to examine the compatibility of PSC and the protection circuit for PSC is implemented. The withstand voltage of PSC can be easily adjusted within 14kV according to the number of diodes. The PSC does not require external control signals and does not interfere with gate driving synchronization or load waveforms, which offers a new solution of IPS for compact Marx generators designed at nanosecond scale.
doi_str_mv 10.1109/TPEL.2024.3377628
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The existing parallel structure for IPS is short of insulation similarity, which results in low insulation utilization ratio (IUR) and limited adjustability. Here we propose a power supply chain (PSC) with series insulation structure. The insulation circumstance of PSC maintains the same for each stage, which increases the minimum IUR to almost 90%, compared to the existing parallel structures. The proposed PSC requires purely diodes, capacitors and inductors to achieve IPS for switches, thus avoiding the customized cost and enhancing insulation adjustability. After analyzing the working principle of PSC, we evaluate the performance of PSC from the perspective of power supply and insulation. Finally, an 8-staged Marx SSPG prototype is developed to examine the compatibility of PSC and the protection circuit for PSC is implemented. The withstand voltage of PSC can be easily adjusted within 14kV according to the number of diodes. 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subjects Cost analysis
Electrical insulation
High voltage nanosecond pulse
Inductors
Insulation
Insulation power supply (IPS)
Insulation similarity
IP networks
Marx
Marx generators
Mathematical models
Power supplies
Power supply
Power supply chain (PSC)
Pulse generators
Series structure
Stress
Supply chains
Switches
Synchronism
Voltage
Voltage control
Waveforms
title Power Supply Chain with Series Insulation Structure for High Voltage Marx Pulse Generator
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