MICROMEGAS FOR NEUTRON DETECTION AND IMAGING.

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Bibliographic Details
Title: MICROMEGAS FOR NEUTRON DETECTION AND IMAGING.
Authors: BELLONI, F.1, GUNSING, F.1, PAPAEVANGELOU, T.1
Source: Modern Physics Letters A. Apr2013, Vol. 28 Issue 13, p-1. 10p. 1 Diagram, 1 Graph.
Subjects: Neutron counters, Nuclear fusion, Gas detectors, Imaging systems, Particles (Nuclear physics), Nuclear reactors, Computed tomography
Abstract: Micromegas-based detectors are used in a wide variety of neutron experiments. Their fast response meets the needs of time-of-flight facilities in terms of time resolution. The possibility of constructing low mass Micromegas detectors makes them appropriate for beam imaging and monitoring without affecting the beam quality or inducing background in parallel measurements. The good particle discrimination capability allows using Micromegas for neutron induced fission and (n, α) cross-section measurements. Their high radiation resistance make them suitable for working as flux monitors in the core of fission nuclear reactors as well as in the proximity of fusion chambers. New studies underlined the possibility of performing neutron computed tomography (CT) with Micromegas as neutron detectors, but also of exploiting its performances in experiments of fundamental nuclear physics. [ABSTRACT FROM AUTHOR]
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Database: Engineering Source
Description
Abstract:Micromegas-based detectors are used in a wide variety of neutron experiments. Their fast response meets the needs of time-of-flight facilities in terms of time resolution. The possibility of constructing low mass Micromegas detectors makes them appropriate for beam imaging and monitoring without affecting the beam quality or inducing background in parallel measurements. The good particle discrimination capability allows using Micromegas for neutron induced fission and (n, α) cross-section measurements. Their high radiation resistance make them suitable for working as flux monitors in the core of fission nuclear reactors as well as in the proximity of fusion chambers. New studies underlined the possibility of performing neutron computed tomography (CT) with Micromegas as neutron detectors, but also of exploiting its performances in experiments of fundamental nuclear physics. [ABSTRACT FROM AUTHOR]
ISSN:02177323
DOI:10.1142/S0217732313400233