Theoretical Analysis of Microwave Breakdown for Microscale Gaps

Theoretical Analysis of Microwave Breakdown for Microscale Gaps

While DC gas breakdown is traditionally driven by Townsend avalanche (TA), the strong electric fields that arise for microscale gaps at non-vacuum pressures induce field emission (FE) that changes breakdown voltage behavior [1]. An asymptotic analysis in the limits of low (FE) and high (TA) ionizati...

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Published in:2023 IEEE International Conference on Plasma Science (ICOPS) p. 358
Main Authors: Mahajanl, S., Loveless, A. M., Semnani, A., Ayyaswamy, V., Garner, A. L.
Format: Conference Proceeding
Language:English
Published: IEEE 21-05-2023
Subjects:
Electric breakdown
Electric fields
Ionization
Iron
Microwave FET integrated circuits
Microwave integrated circuits
Plasmas
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Abstract While DC gas breakdown is traditionally driven by Townsend avalanche (TA), the strong electric fields that arise for microscale gaps at non-vacuum pressures induce field emission (FE) that changes breakdown voltage behavior [1]. An asymptotic analysis in the limits of low (FE) and high (TA) ionization demonstrated the linear scaling of breakdown voltage in the FE regime and the transition to TA at larger gaps.
AbstractList While DC gas breakdown is traditionally driven by Townsend avalanche (TA), the strong electric fields that arise for microscale gaps at non-vacuum pressures induce field emission (FE) that changes breakdown voltage behavior [1]. An asymptotic analysis in the limits of low (FE) and high (TA) ionization demonstrated the linear scaling of breakdown voltage in the FE regime and the transition to TA at larger gaps.
Author Ayyaswamy, V.
Semnani, A.
Loveless, A. M.
Mahajanl, S.
Garner, A. L.
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  surname: Garner
  fullname: Garner, A. L.
  organization: University of Purdue,Nuclear Engineering,West Lafayette,Indiana,United States of America
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Snippet While DC gas breakdown is traditionally driven by Townsend avalanche (TA), the strong electric fields that arise for microscale gaps at non-vacuum pressures...
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StartPage 358
SubjectTerms Electric breakdown
Electric fields
Ionization
Iron
Microwave FET integrated circuits
Microwave integrated circuits
Plasmas
Title Theoretical Analysis of Microwave Breakdown for Microscale Gaps
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