超奥氏体不锈钢 N08029 在苛刻酸化环境中的腐蚀行为

Nasirudeen O. Ogunlakin , Nestor Ankah , Kabiru Haruna , Akeem Y. Adesina , Ahmad A. Sorour
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引用次数: 0

摘要

检查耐腐蚀合金 (CRA) 在酸化等严重油田腐蚀环境中的耐腐蚀性以验证其性能至关重要。最近开发的超级奥氏体不锈钢(SASS)UNS N08029 在极端腐蚀性环境中具有更强的耐腐蚀性。然而,还没有系统的研究对 N08029 在酸化条件下的性能进行评估。本研究采用失重和电化学测量技术,对 N08029 在不同盐酸浓度(最高 25%)、长时间浸泡(最长 48 小时)和高温(最高 80 °C)的苛刻酸化条件下的性能进行了研究。有趣的是,所有测试方法都表明,随着盐酸浓度的增加,SASS 的耐腐蚀性也在增加。这可能是由于随着酸浓度的增加,已形成的氧化铬层被溶解,从而在钢表面形成了氯化铁保护层。盐酸浓度越高,腐蚀速率越低,这是因为盐酸浓度越高,金属表面形成的氯化铁层越多。该层可保护金属免受酸的进一步侵蚀。此外,在浸泡 24 小时后,随着浸泡时间的进一步延长,观察到腐蚀率有所下降,这也可能是由于形成了更多的氯化铁保护层。不过,随着试验溶液温度的升高,SASS 的耐腐蚀性能也有所下降。SASS 的耐腐蚀性随温度升高而降低,这与 SASS 表面的被动/保护膜在高温下不稳定或受损有关。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Corrosion behaviour of superaustenitic stainless steel N08029 in harsh acidizing environment
It is vital to examine the resistance to corrosion of corrosion resistant alloys (CRAs) in severe oilfield corrosive environments such as acidizing to validate their performance. Super austenitic stainless steel (SASS) UNS N08029 was recently developed to offer competitive and improved corrosion resistance in extreme and aggressive environments. However, no systematic studies have evaluated the N08029 performance in acidizing conditions. In this study, N08029 was investigated in harsh acidizing conditions of different HCl concentrations (up to 25 % HCl), long immersion duration (up to 48 h), and at elevated temperatures (up to 80 °C) using both weight loss and electrochemical measurement techniques. Interestingly, all the test methods show that the corrosion resistance of the SASS increases with increasing the concentration of HCl acid. This may be due to the formation of ferric chloride protective layer on the steel surface after the dissolution of the formed chromium oxide layer by the increasing acid concentration. The decrease in the corrosion rate observed at higher HCl concentrations is because the higher concentration of HCl causes the more ferric chloride layer to form on the metal's surface. This layer protects the metal from further acid attack. Also, after 24 h immersion duration, a decrease in corrosion rate with further increase immersion duration was observed which may is also due to the formation of more ferric chloride protective layer. However, the corrosion resistant of the SASS was observed to decrease with increase in temperature of the test solution. The decreased resistance of the SASS to corrosion with increase in temperature is associated with the instability or damage of the passive/protective film on the surface of the SASS at elevated temperatures.
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