X-ray diagnostics of runaway electrons generated during nanosecond discharge in gas at elevated pressures

S. Yatom; D. Levko; J. Z. Gleizer; V. Vekselman; Ya E. Krasik

doi:10.1063/1.3675462

X-ray diagnostics of runaway electrons generated during nanosecond discharge in gas at elevated pressures

S. Yatom, D. Levko, J. Z. Gleizer, V. Vekselman, Ya E. Krasik

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

25 Scopus citations

Abstract

The properties of high-energy runaway electrons generated during a nanosecond discharge in an air filled diode at pressures up to 3 × 10 ⁵Pa were studied using x-ray absorption spectroscopy. The results of studies of the discharge at different pressures and with different lengths of cathode-anode gap allow an insight into the factors that influence the energy distribution of runaway electrons. Energy distribution functions for runaway electrons produced in particle-in-cell simulation were used to create the x-ray attenuation curves via a computer-assisted technique simulating the generation of x-ray by energetic electrons. The simulated attenuation curves were compared to experimental results.

Original language	English (US)
Article number	024101
Journal	Applied Physics Letters
Volume	100
Issue number	2
DOIs	https://doi.org/10.1063/1.3675462
State	Published - Jan 9 2012
Externally published	Yes

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Funding Information:
This work was partly supported by Lady Davis foundation.

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10.1063/1.3675462

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title = "X-ray diagnostics of runaway electrons generated during nanosecond discharge in gas at elevated pressures",

abstract = "The properties of high-energy runaway electrons generated during a nanosecond discharge in an air filled diode at pressures up to 3 × 10 5Pa were studied using x-ray absorption spectroscopy. The results of studies of the discharge at different pressures and with different lengths of cathode-anode gap allow an insight into the factors that influence the energy distribution of runaway electrons. Energy distribution functions for runaway electrons produced in particle-in-cell simulation were used to create the x-ray attenuation curves via a computer-assisted technique simulating the generation of x-ray by energetic electrons. The simulated attenuation curves were compared to experimental results.",

author = "S. Yatom and D. Levko and Gleizer, \{J. Z.\} and V. Vekselman and Krasik, \{Ya E.\}",

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AU - Yatom, S.

AU - Levko, D.

AU - Gleizer, J. Z.

AU - Vekselman, V.

AU - Krasik, Ya E.

N1 - Funding Information: This work was partly supported by Lady Davis foundation.

PY - 2012/1/9

Y1 - 2012/1/9

N2 - The properties of high-energy runaway electrons generated during a nanosecond discharge in an air filled diode at pressures up to 3 × 10 5Pa were studied using x-ray absorption spectroscopy. The results of studies of the discharge at different pressures and with different lengths of cathode-anode gap allow an insight into the factors that influence the energy distribution of runaway electrons. Energy distribution functions for runaway electrons produced in particle-in-cell simulation were used to create the x-ray attenuation curves via a computer-assisted technique simulating the generation of x-ray by energetic electrons. The simulated attenuation curves were compared to experimental results.

AB - The properties of high-energy runaway electrons generated during a nanosecond discharge in an air filled diode at pressures up to 3 × 10 5Pa were studied using x-ray absorption spectroscopy. The results of studies of the discharge at different pressures and with different lengths of cathode-anode gap allow an insight into the factors that influence the energy distribution of runaway electrons. Energy distribution functions for runaway electrons produced in particle-in-cell simulation were used to create the x-ray attenuation curves via a computer-assisted technique simulating the generation of x-ray by energetic electrons. The simulated attenuation curves were compared to experimental results.

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JO - Applied Physics Letters

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ER -

X-ray diagnostics of runaway electrons generated during nanosecond discharge in gas at elevated pressures

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