High-speed optical diagnostic of an exploding wire fuse

M. Giesselmann; T. Heeren; A. Neuber; J. Walter; M. Kristiansen

doi:10.1109/TPS.2002.1003943

High-speed optical diagnostic of an exploding wire fuse

M. Giesselmann, T. Heeren, A. Neuber, J. Walter, M. Kristiansen

Research output: Contribution to journal › Article › peer-review

2 Scopus citations

Abstract

Explosive flux compression generators generate hundreds of kiloamperes and voltages of a few kilovolts. A power conditioning stage is required since typically voltages in the hundreds of kilovolts range are needed. Inductive energy storage systems with an opening switch provide the necessary voltage gain. In our application, the opening switch has been implemented as an exploding wire fuse. The voltage gain, and hence the performance of the system, is greatly dependent on the opening switch. We utilized high-speed optical imaging (up to 10 ⁷ pictures/s) to assess the performance of the exploding wire fuse.

Original language	English
Pages (from-to)	100-101
Number of pages	2
Journal	IEEE Transactions on Plasma Science
Volume	30
Issue number	1 I
DOIs	https://doi.org/10.1109/TPS.2002.1003943
State	Published - Feb 2002

Keywords

Exploding wire fuse
Flux compression generator
Optical diagnostic
Power conditioning

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title = "High-speed optical diagnostic of an exploding wire fuse",

abstract = "Explosive flux compression generators generate hundreds of kiloamperes and voltages of a few kilovolts. A power conditioning stage is required since typically voltages in the hundreds of kilovolts range are needed. Inductive energy storage systems with an opening switch provide the necessary voltage gain. In our application, the opening switch has been implemented as an exploding wire fuse. The voltage gain, and hence the performance of the system, is greatly dependent on the opening switch. We utilized high-speed optical imaging (up to 10 7 pictures/s) to assess the performance of the exploding wire fuse.",

keywords = "Exploding wire fuse, Flux compression generator, Optical diagnostic, Power conditioning",

author = "M. Giesselmann and T. Heeren and A. Neuber and J. Walter and M. Kristiansen",

note = "Funding Information: Manuscript received July 2, 2001; revised November 15, 2001. This work was supported by the Explosive-Driven Power Generation MURI program under the Director of Defense Research and Engineering and by the Air Force Office of Scientific Research.",

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AU - Heeren, T.

AU - Neuber, A.

AU - Walter, J.

AU - Kristiansen, M.

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N2 - Explosive flux compression generators generate hundreds of kiloamperes and voltages of a few kilovolts. A power conditioning stage is required since typically voltages in the hundreds of kilovolts range are needed. Inductive energy storage systems with an opening switch provide the necessary voltage gain. In our application, the opening switch has been implemented as an exploding wire fuse. The voltage gain, and hence the performance of the system, is greatly dependent on the opening switch. We utilized high-speed optical imaging (up to 10 7 pictures/s) to assess the performance of the exploding wire fuse.

AB - Explosive flux compression generators generate hundreds of kiloamperes and voltages of a few kilovolts. A power conditioning stage is required since typically voltages in the hundreds of kilovolts range are needed. Inductive energy storage systems with an opening switch provide the necessary voltage gain. In our application, the opening switch has been implemented as an exploding wire fuse. The voltage gain, and hence the performance of the system, is greatly dependent on the opening switch. We utilized high-speed optical imaging (up to 10 7 pictures/s) to assess the performance of the exploding wire fuse.

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High-speed optical diagnostic of an exploding wire fuse

Abstract

Keywords

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