Paper
3 October 1997 Recent progress in the hard-tube MILO experiment
Michael D. Haworth, Ken E. Allen, G. Baca, James N. Benford, Thad J. Englert, Kirk E. Hackett, Kyle J. Hendricks, Dean M. Henley, Raymond W. Lemke, David Price, Dale R. Ralph, Miguel D. Sena, Donald A. Shiffler, Thomas A. Spencer
Author Affiliations +
Abstract
The Hard-Tube MILO (Magnetically Insulated transmission Line Oscillator) is a gigawatt-class L-band high power microwave tube driven by a 500 kV, 60 kA electron beam. It is nearly identical to the MILO reported by Calico et al., with the principle difference being that the Hard-Tube MILO has been constructed using conventional-tube brazing techniques for the rf joints, while the earlier version of MILO used finger-stock connections for the rf joints. This paper reports on recent experimental improvements to the tube that have allowed us to generate 1.5 - 2.0 GW pulses of 175 ns duration; a 2.5 times improvement in the pulse width over the original tube. In addition, we report on experiments to identify the breakdown mechanism in the vacuum radome for the Vlasov antenna used to radiate the microwave pulse. Finally, details of an optimized version of the Hard-Tube MILO that should allow us to generate over 3.0 GW are presented.
© (1997) COPYRIGHT Society of Photo-Optical Instrumentation Engineers (SPIE). Downloading of the abstract is permitted for personal use only.
Michael D. Haworth, Ken E. Allen, G. Baca, James N. Benford, Thad J. Englert, Kirk E. Hackett, Kyle J. Hendricks, Dean M. Henley, Raymond W. Lemke, David Price, Dale R. Ralph, Miguel D. Sena, Donald A. Shiffler, and Thomas A. Spencer "Recent progress in the hard-tube MILO experiment", Proc. SPIE 3158, Intense Microwave Pulses V, (3 October 1997); https://doi.org/10.1117/12.279433
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KEYWORDS
Microwave radiation

X-rays

Antennas

Dielectrics

Magnetism

PIN photodiodes

Plasma

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