In situ monitoring of crevice corrosion morphology of Type 316L stainless steel and repassivation behavior induced by sulfate ions

•Repassivation of crevice corrosion on Type 316L was observed when the solution was changed from 1M NaCl to 0.88M Na2SO4 or to 1M NaCl-0.88M Na2SO4.•The active dissolution of Type 316L stainless steel in 1M NaCl at pH 0.4 was slightly suppressed by SO42− ions in anodic polarization measurements.•The...

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Veröffentlicht in:Corrosion science 2017-10, Vol.127, p.131-140
Hauptverfasser: Aoyama, Takahito, Sugawara, Yu, Muto, Izumi, Hara, Nobuyoshi
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Sugawara, Yu
Muto, Izumi
Hara, Nobuyoshi
description •Repassivation of crevice corrosion on Type 316L was observed when the solution was changed from 1M NaCl to 0.88M Na2SO4 or to 1M NaCl-0.88M Na2SO4.•The active dissolution of Type 316L stainless steel in 1M NaCl at pH 0.4 was slightly suppressed by SO42− ions in anodic polarization measurements.•The accumulation of SO42− ions toward the crevice brought about the repassivation. To analyze the repassivation mechanism induced by SO42− ions, in situ monitoring of the crevice corrosion morphology on Type 316L stainless steel was performed. The repassivation of the crevice corrosion was observed when the solution was changed from 1M NaCl to 0.88M Na2SO4 or to 1M NaCl-0.88M Na2SO4. The active dissolution of Type 316L stainless steel was suppressed by SO42− ions at pH 0.4 in anodic polarization measurements. The transition from active to passive states inside the crevice was likely promoted by SO42− ions.
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source Elsevier ScienceDirect Journals Complete - AutoHoldings
subjects Anodic polarization
Austenitic stainless steels
Corrosion
Corrosion mechanisms
Crevice corrosion
Monitoring
Potentiostatic
Repassivation
Stainless steel
title In situ monitoring of crevice corrosion morphology of Type 316L stainless steel and repassivation behavior induced by sulfate ions
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