Jonathan G. Gigax, Hyosim Kim, Eda Aydogan, 等. Beam-contamination-induced compositional alteration and its neutron-atypical consequences in ion simulation of neutron-induced void swelling[J]. 材料研究快报(英文), 2017,5(7):478-485.
Jonathan G. Gigax, Hyosim Kim, Eda Aydogan, et al. Beam-contamination-induced compositional alteration and its neutron-atypical consequences in ion simulation of neutron-induced void swelling[J]. Materials Research Letters, 2017, 5(7): 478-485.
Jonathan G. Gigax, Hyosim Kim, Eda Aydogan, 等. Beam-contamination-induced compositional alteration and its neutron-atypical consequences in ion simulation of neutron-induced void swelling[J]. 材料研究快报(英文), 2017,5(7):478-485.DOI: 10.1080/21663831.2017.1323808.
Jonathan G. Gigax, Hyosim Kim, Eda Aydogan, et al. Beam-contamination-induced compositional alteration and its neutron-atypical consequences in ion simulation of neutron-induced void swelling[J]. Materials Research Letters, 2017, 5(7): 478-485.DOI: 10.1080/21663831.2017.1323808.
Beam-contamination-induced compositional alteration and its neutron-atypical consequences in ion simulation of neutron-induced void swelling
BSTRACTAlthough accelerator-based ion irradiation has been widely accepted to simulate neutron damage
neutron-atypical features need to be carefully investigated. In this study
we have shown that Coulomb force drag by ion beams can introduce significant amounts of carbon
nitrogen
and oxygen into target materials even under ultra-high vacuum conditions. The resulting compositional and microstructural changes dramatically suppress void swelling. By applying a beam-filtering technique
introduction of vacuum contaminants is greatly minimized and the true swelling resistance of the alloys is revealed and matches neutron behavior closely. These findings are a significant step toward developing standardized procedures for emulating neutron damage.