2009AIP conference proceedingsRequires access

High Intensity, Pulsed, D-D Neutron Generator

David L. Williams, J. H. Vainionpää, Glenn Jones, M. A. Piestrup, Charles K. Gary, J. L. Harris, Michael J. Fuller, Jay Theodore Cremer, Bernhard A. Ludewigt, J.W. Kwan, Jani Reijonen, K. N. Leung, Richard A. Gough, Floyd D. McDaniel, Barney L. Doyle

Open publisher page 10 citations

Abstract

Single ion‐beam RF‐plasma neutron generators are presented as a laboratory source of intense neutrons. The continuous and pulsed operations of such a neutron generator using the deuterium‐deuterium fusion reaction are reported. The neutron beam can be pulsed by switching the RF plasma and/or a gate electrode. These generators are actively vacuum pumped so that a continuous supply of deuterium gas is present for the production of ions and neutrons. This contributes to the generator’s long life. These single‐beam generators are capable of producing up to 1010 n/s. Previously, Adelphi and LBNL have demonstrated these generators' applications in fast neutron radiography, Prompt Gamma Neutron Activation Analysis (PGNAA) and Neutron Activation Analysis (NAA). Together with an inexpensive compact moderator, these high‐output neutron generators extend useful applications to home laboratory operations.

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What this paper is about

Single ion‐beam RF‐plasma neutron generators are presented as a laboratory source of intense neutrons. The continuous and pulsed operations of such a neutron generator using the deuterium‐deuterium fusion reaction are reported. The neutron beam can be pulsed by switching the RF plasma and/or a gate electrode. These generators are actively vacuum pumped so that a continuous supply of deuterium gas is present for the production of ions and neutrons. This contributes to the generator’s long life. These single‐beam generators are capable of producing up to 1010 n/s. Previously, Adelphi and LBNL have demonstrated these generators' applications in fast neutron radiography, Prompt Gamma Neutron Activation Analysis (PGNAA) and Neutron Activation Analysis (NAA). Together with an inexpensive compact moderator, these high‐output neutron generators extend useful applications to home laboratory operations.

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Available abstract

Single ion‐beam RF‐plasma neutron generators are presented as a laboratory source of intense neutrons. The continuous and pulsed operations of such a neutron generator using the deuterium‐deuterium fusion reaction are reported. The neutron beam can be pulsed by switching the RF plasma and/or a gate electrode. These generators are actively vacuum pumped so that a continuous supply of deuterium gas is present for the production of ions and neutrons. This contributes to the generator’s long life. These single‐beam generators are capable of producing up to 1010 n/s. Previously, Adelphi and LBNL have demonstrated these generators' applications in fast neutron radiography, Prompt Gamma Neutron Activation Analysis (PGNAA) and Neutron Activation Analysis (NAA). Together with an inexpensive compact moderator, these high‐output neutron generators extend useful applications to home laboratory operations.

Key concepts: Neutron generator, Neutron, Neutron source, Beam (structure), Deuterium, Materials science, Nuclear physics, Neutron detection

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