1999
DOI: 10.1016/s0022-3115(99)00009-4
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Relationship between hardening and damage structure in austenitic stainless steel 316LN irradiated at low temperature in the HFIR

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Cited by 64 publications
(34 citation statements)
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“…On the other hand, if high energy neutrons were irradiated to austenitic stainless steels, they will create defects such as vacancy/interstitial (V/I) clusters, stacking faults tetrahedra (SFT), loops, and voids depending on dose, dose rate, irradiation temperature, and so on [14][15][16][17][18]. But, the present TEM observations could not reveal any discernable irradiation-produced defects inside of d and austenite phase.…”
Section: Microstructural Characteristicscontrasting
confidence: 62%
“…On the other hand, if high energy neutrons were irradiated to austenitic stainless steels, they will create defects such as vacancy/interstitial (V/I) clusters, stacking faults tetrahedra (SFT), loops, and voids depending on dose, dose rate, irradiation temperature, and so on [14][15][16][17][18]. But, the present TEM observations could not reveal any discernable irradiation-produced defects inside of d and austenite phase.…”
Section: Microstructural Characteristicscontrasting
confidence: 62%
“…This barrier strength is probably due to the existence of Frank loops. The estimated a value of a Frank loop has been reported to be 0.5 for neutron-irradiated 316LN irradiated at low temperatures [6]. Fig.…”
Section: Microstructural Evolution Of Neutron-irradiated 316ssmentioning
confidence: 92%
“…Irradiation hardening can be evaluated by Orowan's theory for a thermal bowing of dislocations around obstacles on a slip plane [13,14] as described follows: Test Temperature (C) yield stress in a random crystal, the barrier strength of obstacle, the shear modulus of matrix, the Burger's vector of moving dislocation, the number density of obstacle, respectively. From Eq.…”
Section: Effect Of Tempering Condition On Irradiation Hardeningmentioning
confidence: 99%