2015
DOI: 10.1007/s10967-015-4059-8
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Development of a neutron generating target for compact neutron sources using low energy proton beams

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Cited by 65 publications
(26 citation statements)
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“…Total length is 15 m and the accelerator part is 8 m. The width of the RANS area is 8 m. Protons are accelerated up to an energy of 7 MeV with a maximum average current of 100 μA by an Model PL-7 linear accelerator by AccSys Technology Inc. Figure 2 shows a sketch of the setup from the target station to the camera box. The protons bombard a beryllium target 15) at the center of the target station and then neutrons of with a an energy of MeV order are generated via the Be(p,n) reaction. The neutrons are slowed by hydrogens in a moderator, downstream, of the beryllium target, which is made of 40 mm-thick polyethylene.…”
Section: Neutron Imaging Methodsmentioning
confidence: 99%
“…Total length is 15 m and the accelerator part is 8 m. The width of the RANS area is 8 m. Protons are accelerated up to an energy of 7 MeV with a maximum average current of 100 μA by an Model PL-7 linear accelerator by AccSys Technology Inc. Figure 2 shows a sketch of the setup from the target station to the camera box. The protons bombard a beryllium target 15) at the center of the target station and then neutrons of with a an energy of MeV order are generated via the Be(p,n) reaction. The neutrons are slowed by hydrogens in a moderator, downstream, of the beryllium target, which is made of 40 mm-thick polyethylene.…”
Section: Neutron Imaging Methodsmentioning
confidence: 99%
“…Thus care must be taken for the (often windowless) entrance of the incident beam and for the protection of the target against damage by heat deposition, radiation shock, and accumulation of gaseous hydrogen at the end of the range of charged particles in the target material. For example, the damage caused by the end-of-range stopping, evidenced by the well-known "Bragg peak" (not the diffraction peak), of incident protons in beryllium metal is well documented [15] . A few at.…”
Section: Neutron Production By Nuclear Reactions Driven By Low-energymentioning
confidence: 99%
“…Thus, its expansion from huge facilities to compact systems should be highlighted. Even for neutron grating interferometry, the combination with a compact neutron source [98] is within our scope, following the progress of X-ray grating interferometry.…”
Section: Discussionmentioning
confidence: 99%