Retention of ion-implanted deuterium in tungsten pre-irradiated with carbon ions
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Abstract
Abstract Deuterium (D) ion implantation and retention at room temperature was studied in pure and carbon (C) implanted tungsten single crystals. Pre-implantation with C was done at 40 keV and D implantation at 10 keV with the range confined in the carbon modified layer and at 100 keV with the range exceeding the carbon modified layer. The range distributions were investigated in situ using 1 MeV 3 He ions analysing the energy distributions of α particles from the D ( 3 He , p ) α reaction while the total amount of retained D was obtained from the p-integral. The range distribution of carbon was obtained from the backscattered 3 He energy distribution. C pre-impantation influences the D retention only if the range of the D ions is confined within the carbon modified surface layer. In this case, D diffusion beyond the ion range distribution does not occur and the retained D amount is smaller than in the pure W crystal. At D energies exceeding the carbon modified layer the retention occurs in the dislocation zone up to 1 μm and the total retained amount is the same for carbon implanted and pure W samples.
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OpenAlex topics: Fusion materials and technologies · Nuclear Materials and Properties · Nuclear Physics and Applications
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References (22)
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