Progress in Corrosion and Protection Research in Offshore Petroleum Engineering

Xie Wei; Zhongying Xu; Haozhe Zhang

doi:10.54097/7ta2ef51

Authors

Xie Wei
Zhongying Xu
Haozhe Zhang

DOI:

https://doi.org/10.54097/7ta2ef51

Keywords:

Seawater corrosion; steel reinforcement corrosion; corrosion inhibitor.

Abstract

This paper summarizes the latest research progress on the corrosion of concrete structures in marine engineering and its protection technology. The article firstly emphasizes the influence of seawater on the performance of concrete engineering, and then discusses the application of composite corrosion inhibitors in the marine environment. The composite corrosion inhibitor significantly reduces the corrosion rate by simultaneously inhibiting the anodic and cathodic reactions and forming a protective hydrophobic film on the metal surface. The article describes in detail the classification of corrosion inhibitors, including adsorption or film-forming inhibitors with polar hydrophobic groups such as N, S, and -OH, as well as migratory corrosion inhibitors (MCIs) that diffuse through the pores of the concrete to the surface of the reinforcement bar to form a protective film. The article also discusses the performance evaluation criteria of corrosion inhibitors, including the electrochemical performance of saltwater impregnation, the performance of dry-wet cold-heat cycles, and the performance of resistance to Cl- penetration, etc., and lists the relevant national standards and test methods. Through a comprehensive analysis of relevant literature at home and abroad in recent years, the article points out that composite corrosion inhibitors show great potential in improving the durability of marine concrete structures, but the long-term stability and compatibility with different concrete types still need to be further studied. Future research should focus on developing more efficient and environmentally friendly corrosion inhibitors and expanding their application in marine engineering to meet the increasingly severe challenges of marine corrosion. At the same time, a comprehensive evaluation of the longevity, economy and environmental friendliness of corrosion inhibitors is also an important direction for future research.

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References

[1] Liu Ke, Zhang Jie, Li Yan et al. Corrosion of reinforced concrete in actual marine environment[J]. Equipment Environmental Engineering, 2020, Vol. 17(4), p. 96-104.

[2] Zhu Haiwei, Yu Hongfa, Ma Haiyan. Y.. Electrochemical study on the effect of rust inhibitor on corrosion of steel reinforcement in concrete under marine environment[J]. Journal of Southeast University (Natural Science Edition), 2020, Vol. 50(1), p. 109-119.

[3] Chen Bei, Li Zhong, Zhang Xing Shi. Experimental study on the effect of anticorrosion and rust inhibitor on concrete properties[J]. Silicate Bulletin, 2017, Vol. 36(5), p. 1790-1795.

[4] Liu Jianzhao. Application of corrosion-resistant rust inhibitor in high-performance concrete for marine engineering[J]. Sichuan Building Materials, 2020, Vol. 46(4), p. 20-21.

[5] Ma Shihao, Li Weihua, Zheng Haibing et al. Research progress on rust inhibition mechanism and performance evaluation of steel reinforcement rust inhibitors[J]. Corrosion and Protection,2017, Vol. 38(12), p. 963-968.

[6] Chen Mingshi, Sun Congtao, Yu Jingfei. Rust inhibition mechanism of steel reinforcement rust inhibitor in concrete[J]. Concrete,2015, Vol. 1(6), p. 80-83.

[7] Mangi, S. A., Makhija, A., Raza, M. S., et al. A Comprehensive Review on Effects of Seawater on Engineering Properties of Concrete[J]. Silicon, 2021, Vol. 13(5), p. 4519-4526.

[8] Liu Yang. Research on corrosion prevention performance of steel reinforcement rust inhibitor in marine environment[D]. Ocean University of China, 2012.

[9] Yang Lin, Li Zunyun, Hu Shan. Rust inhibition performance of organic steel reinforcement rust inhibitor in concrete and its effect on concrete properties[J]. Concrete,2012, Vol. 1(2), p. 72-74.

[10] Ze Long, Pan Chonggen, Sheng Jiansong et al. Preparation and performance study of seawater resistant corrosion inhibitor[J]. New Building Materials,2014, Vol. 41(1), p. 664.

[11] Xu Zeyang, Ju Hong, JIA Hongxing et al. Development and prospect of environmentally friendly corrosion inhibitors in seawater environment[J]. Industrial Water Treatment, 2016, Vol. 36(10), p. 114.

[12] Cai Guowei, Yang Lihui, Li Yantao et al. Research progress of corrosion inhibitors for carbon steel in seawater environment[J]. Corrosion and Protection,2015, Vol. 36(2), p. 10107.

[13] Tan, B., Okoronkwo, M. U., Kumar, A., et al. Durability of calcium sulfoaluminate cement concrete[J]. Journal of Zhejiang University-SCIENCE A, 2020, Vol. 21(2), p. 118-128.

[14] Goyal, A., Pouya, H. S., Ganjian, E., et al. A Review of Corrosion and Protection of Steel in Concrete[J]. Arabian Journal for Science and Engineering. 2018, Vol. 43(8), p. 5035-5055.

[15] Raja P. B., Ismail, M., Ghoreishiamiri, S., et al. Reviews on Corrosion Inhibitors: A Short View[J]. Chemical Engineering Communications, 2016, Vol. 203(9), p. 1145-1156.

[16] Ma Qi, Cai Jingshun, Mu Song et al. Corrosion inhibitor effect of organic aminol corrosion inhibitor on steel reinforcement in concrete simulated pore solution and mortar specimens[J]. Chinese Journal of Corrosion and Protection,2021, Vol. 41(5), p. 659-666.

[17] Lian Songsong, Xu Qinglei, Meng Tao et al. Study on the effect of corrosion inhibitor on the corrosion behavior of steel sheets in simulated pore liquid of marine concrete[J]. New Building Materials,2021, Vol. 48(8), p. 6.

[18] Chen Yunxiang, Feng Lijuan, Cai Jianbin et al. Inhibition of reinforcement corrosion by novel compounded corrosion inhibitors in concrete simulants and test blocks[J]. Chinese Journal of Corrosion and Protection, 2018, Vol. 38(4), p. 343-350.

[19] Melchers, R. E., Li, C. Q., et al. Long-term observations of reinforcement corrosion for concrete elements exposed to the North Sea[J]. Australasian Corrosion Association, 2018, Vol. 45(6), p. 78-86.

[20] Zhou Xiaozhang, Mu Song, Ma Qi et al. Accelerated evaluation and equivalence analysis of organic steel corrosion inhibitors in concrete simulated pore solutions[J]. Journal of Silicates, 2021, Vol. 49(8), p. 1713-1721.

[21] Melchers, R. E. Long-term durability of marine reinforced concrete structures[J]. Journal of Marine Science and Engineering, 2020, Vol. 8(4), p. 290.

[22] Green, W. K., et al. Steel reinforcement corrosion in concrete–an overview of some fundamentals[J]. Corrosion Engineering, Science and Technology, 2020, Vol. 55(4), p. 289-302.

[23] Li Xinxin, Zhang Xiaoping, Ji Xiankun et al. Development of composite corrosion inhibitor and its effect on concrete properties[J]. New Building Materials, 2021, Vol. 48(4), p. 76-79.

[24] Chen, Z., Fadhil, A. A., Chen, T., et al. Green synthesis of corrosion inhibitor with biomass platform molecule: Gravimetrical, electrochemical, morphological, and theoretical investigations[J]. Journal of Molecular Liquids, 2021, Vol. 332(4), p. 115852.

[25] Zhang Zhaocai. Development of corn protein corrosion inhibitor for reinforced concrete and its corrosion inhibition mechanism [D]. Harbin Institute of Technology,2020.

[26] Chen Qirong, Zhou Xiaobang, Cai Jingshun et al. Study on corrosion inhibitor behavior of Q235 by amide organic corrosion inhibitor in concrete simulated pore liquid[J]. Concrete,2019, Vol. 4(12), p. 64-68.

[27] Chen Yiqun, Zuo Junqing, Fan Tingchen et al. Research on anti-corrosion performance of cationic concrete corrosion inhibitor[J]. Concrete and Cement Products,2019, Vol. 16(11), p. 9-11.

[28] Jafari, H., Akbarzade, K., Danaee, I., et al. Corrosion inhibition of carbon steel immersed in a 1M HCl solution using benzothiazole derivatives[J]. Arabian Journal of Chemistry, 2019, Vol. 12(7), p. 1387-1394.

[29] Zhou Xiaozhang, Shi Liang, Cai Jingshun et al. Study on the corrosion inhibitor behavior of amine carboxylate corrosion inhibitor on carbon steel in concrete simulated pore solution[J]. New Building Materials, 2019, Vol. 46(8), p. 68-72.

[30] Tan Jing, Tang Chuanjiang, Liu Wei et al. Effect of migrating alcoholamine corrosion inhibitor on concrete permeability[J]. Concrete, 2018, Vol. 1(11), p. 74-77.

[31] Chandrabhan, V., Lgaz C. D., Verma, D. K., et al. Molecular dynamics and Monte Carlo simulations as powerful tools for study of interfacial adsorption behavior of corrosion inhibitors in aqueous phase: A review[J]. Journal of Molecular Liquids, 2018, Vol. 260(6), p. 99-120.

[32] Xue Junpeng. Research on anti-erosion, anti-corrosion and rust-blocking concrete admixtures in coastal areas[J]. Construction Technology,2016, Vol. 47(4), p. 347-349.

[33] Qin Xianming, Peng Pengfei, Yan Lichuan et al. Study on the effect of corrosion inhibitors on the durability of concrete[J]. Concrete,2012, Vol. 66(2), p. 75-77.

[34] Tang, Y., Wang, S., Xu, Y., et al. Influence of calcium nitrite on the passive films of rebar in simulated concrete pore solution[J]. Anti-Corrosion Methods and Materials, 2017, Vol. 64(3), p. 1620-1667.

[35] WuShanshan, Jiang Linhua, Xu Jinxia et al. Effects of corrosion inhibitors on chloride salt corrosion behavior of concrete reinforcement[J]. Material Protection, 2012, Vol. 45(02), p. 114.

[36] Zhu Tao. Research on the inhibition effect of corrosion inhibitor on pitting corrosion of concrete reinforcement[D]. Huazhong University of Science and Technology, 2011.

[37] Tian Yuwan, Wen Cheng, Mo Wanwan, Wang Gui, Hu Jiezhen, Deng Peichang.Corrosion inhibition law of carbon steel reinforcing bars in marine engineering by Zn-Al-NO2 LDH[J]. Journal of Guangdong Ocean University,2020, Vol. 40(3), p. 122-133.

[38] Zhang, H. H., Pang, X., Gao, K., et al. Localized CO2 corrosion of carbon steel with different microstructures in brine solutions with an imidazoline-based inhibitor[J]. Applied Surface Science, 2018, Vol. 442(1), p. 446-460.

[39] Lin Bing. Corrosion inhibition of carbon steel by several organic corrosion inhibitors in simulated carbonized concrete pore fluid[D]. Beijing University of Chemical Technology,2019.

[40] Dong, S. G., Zhao, B., Lin, C., et al. Corrosion behavior of epoxy/zinc duplex coated rebar embedded in concrete in ocean environment[J]. Construction & Building Materials, 2012, Vol. 28(1), p. 72-78.

[41] Malik, A. U., Andijani, I., Al-Moaili, F., et al. Studies on the performance of migratory corrosion inhibitors in protection of rebar concrete in Gulf seawater environment[J]. Cement & Concrete Composites, 2014, Vol. 26(3), p. 235-242.

[42] Saxena, A., Prasad, D., Haldhar, R. Use of syzygium aromaticum extract as green corrosion inhibitor for mild steel in 0.5m 4[J]. Surface Review and Letters, 2019, Vol. 53(11), p. 8523-8535.

[43] Raja, P. B., Ghoreishiamiri, S., Ismail, M. Natural corrosion inhibitors for steel reinforcement in concrete-a review[J]. Surface Review and Letters, 2015, Vol. 22(3), p. 1550040-1550040.

[44] Haleem, S., Wanees, S., Aal, E., et al. Environmental factors affecting the corrosion behavior of reinforcing steel III. Measurement of pitting corrosion currents of steel in Ca(OH)2 solutions under natural corrosion conditions[J]. Corrosion Science, 2010, Vol. 52(2), p. 292-302.

[45] Dan. S., Ma, A. B., Jiang, J., et al. Corrosion behavior of equal-channel-angular-pressed pure magnesium in NaCl aqueous solution[J]. Corrosion Science, 2010, Vol. 52(2), p. 48490.

[46] Chousidis, N., Ioannou, I., Rakanta. E., et al. Effect of fly ash chemical composition on the reinforcement corrosion, thermal diffusion and strength of blended cement concretes[J]. Construction and Building Materials, 2016, Vol. 126(9), p. 86-97.

[47] Grgur, B. N., Elkais, A. R., Gvozdenovi, M. M., et al. Corrosion of mild steel with composite polyaniline coatings using different formulations[J]. Progress in Organic Coatings, 2015, Vol. 79(3), p. 17-24.

[48] Zhuang, J., Song, R., Xiang, N., et al. Corrosion Behavior of Micro-arc Oxidation Coatings Formed on 6063 Aluminum Alloy[J]. Corrosion Science and Protection Technology, 2017, Vol. 29(5), p. 492-498.

[49] Zandi, M. S., Hasanzadeh, M., The self-healing evaluation of microcapsule-based epoxy coatings applied on AA6061 Al alloy in 3.5% NaCl solution[J]. Anti-Corrosion Methods and Materials, 2017, Vol. 64(2), p. 225-232.

[50] Yasuda, Y., Abe, H., Matsubayashi, R., et al. Corrosion Behavior of Lead-Free Copper Alloy Castings and Their Crystallized Substances of Cu2S and Bi[J]. Materials transactions, 2017, Vol. 58(12), p. 1679-1686.

[51] Yang, F., Liu, T., Li, J., et al. Anticorrosive behavior of a zinc-rich epoxy coating containing sulfonated polyaniline in 3.5% NaCl solution[J]. RSC Advances, 2018, Vol. 8(24), p. 13237-13247.