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Effect of Phase Transformation on Damage-induced Magnetization of 304 Austenitic Stainless Steel
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Effect of phase transformation on damage-induced magnetization of 304 austenitic stainless steel is experimentally studied in this paper. Firstly, relationship between plastic deformation and the deformation-induced phase transformation of 304 austenitic steel is investigated. Then, compositions and distributions of phases in the 304 austenitic steel specimens are observed by an X-ray diffractometer and a magnetic force microscopy, respectively. Finally, relationship between the damage-induced magnetization and the deformation-induced ferromagnetic phase for the 304 austenitic steel is summarized. It is found that 1) the ferromagnetic α'-martensite phase increases systematically with the plastic deformation and distributes mainly at the in-grain slip lines. 2) the intensity of damage-induced magnetization depends linearly on the amount of ferromagnetic phase for 304 austenitic steel. It is also clarified that the reason why the damage-induced magnetization increases with plastic strain in the 304 steel is due to the increasing amount of ferromagnetic phase caused by plastic deformation.
Title: Effect of Phase Transformation on Damage-induced Magnetization of 304 Austenitic Stainless Steel
Description:
Effect of phase transformation on damage-induced magnetization of 304 austenitic stainless steel is experimentally studied in this paper.
Firstly, relationship between plastic deformation and the deformation-induced phase transformation of 304 austenitic steel is investigated.
Then, compositions and distributions of phases in the 304 austenitic steel specimens are observed by an X-ray diffractometer and a magnetic force microscopy, respectively.
Finally, relationship between the damage-induced magnetization and the deformation-induced ferromagnetic phase for the 304 austenitic steel is summarized.
It is found that 1) the ferromagnetic α'-martensite phase increases systematically with the plastic deformation and distributes mainly at the in-grain slip lines.
2) the intensity of damage-induced magnetization depends linearly on the amount of ferromagnetic phase for 304 austenitic steel.
It is also clarified that the reason why the damage-induced magnetization increases with plastic strain in the 304 steel is due to the increasing amount of ferromagnetic phase caused by plastic deformation.
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