journal article·2015-04

Gas porosity evolution and ion-implanted helium behavior in reactor ferritic/martensitic and austenitic steels

I.I. Chernov, B.A. Kalin, М.S. Staltsov, Kyi Zin Oo, S.Yu. Binyukova, O.S. Staltsova, A.A. Polyansky, V.S. Ageev, A.A. Nikitina

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Abstract

Abstract The peculiarities of gas porosity formation and helium retention and release in reactor ferritic/martensitic EP-450 and EP-450-ODS and austenitic ChS-68 steels are investigated by transmission electron microscopy and helium thermal desorption spectrometry (HTDS). The samples were irradiated by 40 keV He + ions up to a fluence of 5 · 10 20 m −2 at 293 and 923 K. An nonuniform distribution of helium bubbles and high-level gas swelling in ferritic/martensitic steels were found at high-temperature helium implantation. The same irradiation conditions result in formation of uniformly distributed helium bubbles and low-level swelling in ChS-68 steel. Temperature range of helium release from EP-450-ODS steel was considerably wider in comparison to HTDS-spectra of the EP-450 steel. A considerable quantity of helium is released from ODS steel in the high-temperature range after the main peak of the HTDS-spectrum.
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Research context

OpenAlex topics: Fusion materials and technologies · Nuclear Materials and Properties · Nuclear reactor physics and engineering

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References (20)

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