1995AIP conference proceedingsRequires access

Introduction to spallation physics and spallation-target design

G.J. Russell, E.J. Pitcher, L. L. Daemen

Open publisher page 16 citations

Abstract

When coupled with the spallation process in appropriate target materials, high‐power accelerators can be used to produce large numbers of neutrons, thus providing an alternate method to the use of nuclear reactors for this purpose. Spallation offers exciting new possibilities for generating intense neutron fluxes for a variety of applications, including: (a) spallation‐neutron sources for materials science research; (b) accelerator‐based production of tritium; (c) accelerator‐based transmutation of waste; (d) accelerator‐based destruction of plutonium; and (e) radioisotope production for medical and energy applications. Target design plays a key role in these applications, with neutron production/leakage being strongly dependent on the incident particle type and energy, and target material and geometry.

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What this paper is about

When coupled with the spallation process in appropriate target materials, high‐power accelerators can be used to produce large numbers of neutrons, thus providing an alternate method to the use of nuclear reactors for this purpose. Spallation offers exciting new possibilities for generating intense neutron fluxes for a variety of applications, including: (a) spallation‐neutron sources for materials science research; (b) accelerator‐based production of tritium; (c) accelerator‐based transmutation of waste; (d) accelerator‐based destruction of plutonium; and (e) radioisotope production for medical and energy applications. Target design plays a key role in these applications, with neutron production/leakage being strongly dependent on the incident particle type and energy, and target material and geometry.

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Available abstract

When coupled with the spallation process in appropriate target materials, high‐power accelerators can be used to produce large numbers of neutrons, thus providing an alternate method to the use of nuclear reactors for this purpose. Spallation offers exciting new possibilities for generating intense neutron fluxes for a variety of applications, including: (a) spallation‐neutron sources for materials science research; (b) accelerator‐based production of tritium; (c) accelerator‐based transmutation of waste; (d) accelerator‐based destruction of plutonium; and (e) radioisotope production for medical and energy applications. Target design plays a key role in these applications, with neutron production/leakage being strongly dependent on the incident particle type and energy, and target material and geometry.

Key concepts: Spallation, Nuclear transmutation, Nuclear engineering, Neutron, Spallation Neutron Source, Particle accelerator, Nuclear physics, Fissile material

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