Microstructural interpretation of the fluence and temperature dependence of the mechanical properties of irradiated AISI 316. [Neutron irradiation]
George D. Johnson, F.A. Garner, H.R. Brager, Rebecca L. Fish
Abstract
George D. Johnson, F.A. Garner, H.R. Brager, Rebecca L. Fish
Abstract
The effects of neutron irradiation on the mechanical properties of annealed and 20 perecent cold-worked AISI 316 irradiated in the experimental breeder reactor II were determined for the temperature regime of 370 to 760 degree C for fluences up to 8.4 X 10/sup 22/ neutrons (n)/cm/sup 2/ (E>0.1 MeV). Observations are explained in terms of the fluence and temperature dependence of the irradiation-induced microstructure. Very good agreement between the observed data and calculated strengths was obtained for both solution-annealed and cold-worked AISI 316 through the use of simple hardening expressions for each type of microstructural defect.
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The effects of neutron irradiation on the mechanical properties of annealed and 20 perecent cold-worked AISI 316 irradiated in the experimental breeder reactor II were determined for the temperature regime of 370 to 760 degree C for fluences up to 8.4 X 10/sup 22/ neutrons (n)/cm/sup 2/ (E>0.1 MeV). Observations are explained in terms of the fluence and temperature dependence of the irradiation-induced microstructure. Very good agreement between the observed data and calculated strengths was obtained for both solution-annealed and cold-worked AISI 316 through the use of simple hardening expressions for each type of microstructural defect.
Key concepts: Irradiation, Materials science, Fluence, Microstructure, Neutron, Hardening (computing), Neutron flux, Radiochemistry