Auto-resonant eniotron oscillator using a magnetron type cavity

Musyoki, S.; Yokoo, K.; Sato, Nobuyuki; Ono, S.

doi:10.1080/00207219108925514

Cited by 5 publications

(1 citation statement)

References 4 publications

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“…However, no experimental study has been carried out to confirm these promising features of the auto-resonant peniotron interaction. Using a previously designed test tube with a magnetron type cavity for high efficiency auto-resonant peniotron experiments (Musyoki et al 1991), we have obtained an electronic efficiency of more than 70%. This paper describes the cold test and experimental results for the test tube.…”

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confidence: 97%

Experiments on highly efficient operation of the auto-resonant peniotron oscillator

Musyoki

Sagae

Yokoo

et al. 1992

International Journal of Electronics

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The auto-resonant peniotron has been theoretically expected to have a very high conversion efficiency(nearly 100%) for an ideal electron beam with an appropriate value for the velocity ratio interacting in a suitable circuit with an electromagnetic wave whose phase velocity is equal to the velocity of light in free space. This paper presents experimental results showing more than 70% electronic efficiency obtained from an auto-resonant peniotron oscillator with a magnetron type cavity.

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mentioning

confidence: 97%

Experiments on highly efficient operation of the auto-resonant peniotron oscillator

Musyoki

Sagae

Yokoo

et al. 1992

International Journal of Electronics

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Resonant frequencies of a rising-sun gyrotron cavity

Brand

1996

Int J Infrared Milli Waves

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Slow equations of motion for gyrotron and peniotron interactions

Brand

1992

Physics of Fluids B: Plasma Physics

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In this paper, a new and more general set of slow equations of motion for computing gyrotron (including high-harmonic gyrotron) and peniotron (including both peniotrons, where the orbit is centered on the axis and gyropeniotrons) interactions is derived. These slow equations are convenient to use and allow the interactions to be investigated numerically. They reduce to the correct expressions in the small-signal limit to yield starting currents. Small-signal and large-signal calculations yield results that agree with those of other workers. The equations are used to investigate the gyropeniotron.

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Auto-resonant eniotron oscillator using a magnetron type cavity

Cited by 5 publications

References 4 publications

Experiments on highly efficient operation of the auto-resonant peniotron oscillator

Experiments on highly efficient operation of the auto-resonant peniotron oscillator

Resonant frequencies of a rising-sun gyrotron cavity

Slow equations of motion for gyrotron and peniotron interactions

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