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材料と環境 Vol. 70 (2021), No. 9

ISIJ International
belloff
オンライン版ISSN: 1881-9664
冊子版ISSN: 0917-0480
発行機関: Japan Society of Corrosion Engineering

Backnumber

  1. Vol. 73 (2024)

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キーワードランキング

10 May. (Last 30 Days)

材料と環境 Vol. 70 (2021), No. 9

ショットピーニング及び冷間圧延316ステンレス鋼の340℃大気中熱時効による表面硬化

竹本 幹男, 中村 元昭, 植野 修一

pp. 284-294

DOI:

10.3323/jcorr.70.284

抄録

Authors studied surface hardening of shot-peened or cold rolled Type 316 stainless steels during aging at 340℃ in air. We first introduce our shot peening method using PSZ （yttrium partially stabilized zirconia） shots which has been utilized as the countermeasure against the chloride stress corrosion cracking （SCC） of chemical process and nuclear energy equipment, and reveal the structure and physical properties of the peened Type 316 stainless steel. Next, we study change of both structure and properties of the peened or cold rolled Type 316 stainless steel during aging at 340℃ in air. We discuss mechanism why the cold worked and then aged Type 316 stainless steel in air tends to suffer intergranular cracks by few percent surface strains. Feasibility of the grain boundary hardening and cracking by internal diffusion of oxygen via thin layer of strain-induced martensite is proposed.

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ショットピーニング及び冷間圧延316ステンレス鋼の340℃大気中熱時効による表面硬化

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Ris

水道水環境における炭素鋼の腐食（Ⅱ）

中村 勇二, 松川 安樹, 岡崎 慎司, 朝倉 祝治

pp. 295-301

DOI:

10.3323/jcorr.70.295

抄録

This research was focused on the growth of rusted areas on the surface of carbon steel in tap waters, which were collected at 66 locations in Japan.Rusted area ratio （θ） was defined as θ＝Arust/A, where A was total surface area and Arust was the area covered with corrosion products. The changes of θ and corrosion potential （Ecorr） with time were investigated.The followings （1）-（6） were resulted.（1）As immersion time elapsed, θ increased and Ecorr became less noble.（2）The abrupt changes in θ and Ecorr with time appeared simultaneously. Stagnations of both θ and Ecorr followed the above. The time of the abrupt change depended on quality of the tap water.（3）The relationship between log{θ/（1－θ）} and Ecorr was similar regardless of water quality.This meant that the rusted area could be estimated only by measuring Ecorr.（4）The abrupt change was in θ seen from 0.2 to 0.5 and Ecorr from －300 to －500 mV vs.SSE, the time at which Ecorr reached －400 mV was defined as tinitial. For larger tinitial, the corrosion at small θ rusted longer.（5）Both average and maximum localized corrosion rates were closely related to tinitial. Insight into those relations surmised the following mechanisms;（a）When θ＜0.2, the anodes were fixed, inducing localized corrosion.（b）When θ＞0.5, anodic and cathodic reactions were distributed even on the whole surface, resulting in then uniform corrosion.（6）The authors found that the maximum localized corrosion rate, vmax（mm y－1） was a function of tinitial as vmax＝0.32×tinitial1/3. The unit of tinitial in this equation was hour.

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水道水環境における炭素鋼の腐食（Ⅱ）

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塩化物水溶液におけるステンレス鋼の準安定孔食電位測定によるすきま腐食発生臨界電位の推定

長岡 彬, 松橋 亮, 梶村 治彦

pp. 302-311

DOI:

10.3323/jcorr.70.302

抄録

It has been reported that crevice corrosion of stainless steel is accompanied by the generation of micro pits with a diameter of several μm in the crevice. Such micro pits are called metastable pits because they are immediately repassivated on free surfaces without a crevice structure. Metastable pitting potential （V’C, MS） of stainless steel in aqueous solution of pH＝1.0, [Cl－]＝3.0 mol・dm－3, which was obtained from anodic polarization, was consistent with the critical potential for the initiation of crevice corrosion （VC, CREV）. Therefore, it was found that the measurement of V’C, MS in the aqueous solution simulating the environment in the crevice when the micro pits are generated is useful for the simple estimation of VC, CREV.

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塩化物水溶液におけるステンレス鋼の準安定孔食電位測定によるすきま腐食発生臨界電位の推定

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