INHOMOGENEOUS FIELD BREAKDOWN IN GIS - THE PREDICTION OF BREAKDOWN PROBABILITIES AND VOLTAGES.

N. Wiegart; L. Niemeyer; F. Pinnekamp; W. Boeck; J. Kindersberger; R. Morrow; W. Zaengl; M. Zwicky; I. Gallimberti; S. A. Boggs

INHOMOGENEOUS FIELD BREAKDOWN IN GIS - THE PREDICTION OF BREAKDOWN PROBABILITIES AND VOLTAGES.

N. Wiegart, L. Niemeyer, F. Pinnekamp, W. Boeck, J. Kindersberger, R. Morrow, W. Zaengl, M. Zwicky, I. Gallimberti, S. A. Boggs

Switz

Research output: Contribution to conference › Paper › peer-review

Abstract

Inhomogeneous field breakdown in SF//6 has been investigated, and a theory has been developed which predicts the breakdown voltage for fast rising (rectangular) waveforms applied to arbitrary electrode geometries and gas pressures. This theory facilitates the analytical design of aspects of many GIS components where previously engineering judgment and development testing were necessary. An analytical approach is both more economic and more reliable. Extensions of the theory, presently underway, will permit breakdown voltage prediction for arbitrary surge waveform, which will facilitate the assessment of test waveform efficacy and the development of more reliable field, factory, and type tests. The paper summarizes this research in a form relevant to the working power engineer.

Original language	English
State	Published - 1987
Externally published	Yes

Cite this

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title = "INHOMOGENEOUS FIELD BREAKDOWN IN GIS - THE PREDICTION OF BREAKDOWN PROBABILITIES AND VOLTAGES.",

abstract = "Inhomogeneous field breakdown in SF//6 has been investigated, and a theory has been developed which predicts the breakdown voltage for fast rising (rectangular) waveforms applied to arbitrary electrode geometries and gas pressures. This theory facilitates the analytical design of aspects of many GIS components where previously engineering judgment and development testing were necessary. An analytical approach is both more economic and more reliable. Extensions of the theory, presently underway, will permit breakdown voltage prediction for arbitrary surge waveform, which will facilitate the assessment of test waveform efficacy and the development of more reliable field, factory, and type tests. The paper summarizes this research in a form relevant to the working power engineer.",

author = "N. Wiegart and L. Niemeyer and F. Pinnekamp and W. Boeck and J. Kindersberger and R. Morrow and W. Zaengl and M. Zwicky and I. Gallimberti and Boggs, {S. A.}",

year = "1987",

language = "English",

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TY - CONF

T1 - INHOMOGENEOUS FIELD BREAKDOWN IN GIS - THE PREDICTION OF BREAKDOWN PROBABILITIES AND VOLTAGES.

AU - Wiegart, N.

AU - Niemeyer, L.

AU - Pinnekamp, F.

AU - Boeck, W.

AU - Kindersberger, J.

AU - Morrow, R.

AU - Zaengl, W.

AU - Zwicky, M.

AU - Gallimberti, I.

AU - Boggs, S. A.

PY - 1987

Y1 - 1987

N2 - Inhomogeneous field breakdown in SF//6 has been investigated, and a theory has been developed which predicts the breakdown voltage for fast rising (rectangular) waveforms applied to arbitrary electrode geometries and gas pressures. This theory facilitates the analytical design of aspects of many GIS components where previously engineering judgment and development testing were necessary. An analytical approach is both more economic and more reliable. Extensions of the theory, presently underway, will permit breakdown voltage prediction for arbitrary surge waveform, which will facilitate the assessment of test waveform efficacy and the development of more reliable field, factory, and type tests. The paper summarizes this research in a form relevant to the working power engineer.

AB - Inhomogeneous field breakdown in SF//6 has been investigated, and a theory has been developed which predicts the breakdown voltage for fast rising (rectangular) waveforms applied to arbitrary electrode geometries and gas pressures. This theory facilitates the analytical design of aspects of many GIS components where previously engineering judgment and development testing were necessary. An analytical approach is both more economic and more reliable. Extensions of the theory, presently underway, will permit breakdown voltage prediction for arbitrary surge waveform, which will facilitate the assessment of test waveform efficacy and the development of more reliable field, factory, and type tests. The paper summarizes this research in a form relevant to the working power engineer.

UR - http://www.scopus.com/inward/record.url?scp=0023120005&partnerID=8YFLogxK

M3 - Paper

AN - SCOPUS:0023120005

ER -

INHOMOGENEOUS FIELD BREAKDOWN IN GIS - THE PREDICTION OF BREAKDOWN PROBABILITIES AND VOLTAGES.

Abstract

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