State-of-the-Art on Fatigue Properties of Corroded Steel Members Subjected to Marine Atmosphere
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摘要: 疲劳破坏是引起金属结构破坏的最主要原因之一,若考虑锈蚀,问题更为复杂。国内外学者对锈蚀钢构件疲劳性能进行了系统全面的研究。文章以“锈蚀电化学过程—锈蚀表征方法—锈蚀钢构件疲劳性能”为主线,对相关研究成果进行回顾与分析。结果表明:对钢材锈蚀的电化学过程、锈蚀疲劳破坏一般规律、锈蚀特征的单一表征方法等方面已有了清晰的认识。但是,锈蚀钢结构疲劳性能时变演化规律的精准预测仍然面临重大挑战。未来需要进一步研究钢结构锈坑时空分布规律和形貌特征参数随机模型、自然环境和环境箱人工环境中钢结构锈蚀机理相似性、海洋大气环境下锈蚀钢结构疲劳性能随机演化机理,以及锈蚀钢结构疲劳性能控制与提升。Abstract: Fatigue failure is one of the main causes of metal structure damage, and if corrosion is considered, the problem becomes more complex. Domestic and foreign scholars have conducted systematic and comprehensive research on the fatigue properties of corroded steel components. The paper critically reviewed and analyzed the state-of-the-art on fatigue properties of corroded steel elements subjected to marine atmosphere in terms of electrochemical corrosion process, corrosion characterization, fatigue properties of corroded steel components. It was found that the electrochemical process of steel corrosion, the general laws of fatigue properties of corroded steels, the characterization of corroded steel surfaces based on a single index have been clearly understood. However, the accurate evaluation of the evolution of fatigue properties of corroded steel structures still faces significant challenges. It is suggested to further identify the spatiotemporal distribution and random models of morphological characteristics of corroded steels, the similarity of steel corrosion mechanisms between natural and artificial environmental conditions, the random evolution mechanism of fatigue properties of corroded steel structures in marine atmospheric environment, as well as the control and improvement of the fatigue properties of corroded steel structures.
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Key words:
- marine atmosphere /
- steel member /
- corrosion /
- fatigue
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[1] 岳清瑞. 钢结构与可持续发展[J]. 建筑, 2021, (13): 20-1, 3. [2] B HOU, X LI, and X MA, et al.The cost of corrosion in China [J], npj Materials Degradation 1, 14(2017). [3] S GUO, R SI, and Q DAI, et al.A critical review of corrosion development and rust removal techniques on the structural/environmental performance of corroded steel bridges [J], Journal of Cleaner Production 233, 126146(2019). [4] ASCE. Committee on fatigue and fracture reliability of the committee on structural safety and reliability of the structural division. Fatigue reliability 1-4[J]. Journal of the Structural Divison, 1982, 108(ST1): 3-88. [5] LI C Q, YANG W. Steel corrosion and degradation of its mechanical properties [M]. Boca Raton, USA: CRC Press, 2021. [6] S CAINES, F KHAN, and J SHIROKOFF, Analysis of pitting corrosion on steel under insulation in marine environments [J], Journal of Loss Prevention in the Process Industries 26, 614661483(2013). [7] Y MA, Y LI, and F WANG, Corrosion of low carbon steel in atmospheric environments of different chloride content [J], Corrosion Science 51, 59971006(2009). [8] XIA D H, MA C, BEHNAMIAN Y, et al. Reliability of the estimation of uniform corrosion rate of Q235B steel under simulated marine atmospheric conditions by electrochemical noise (EN) analyses [J/OL]. Measurement, 2019, 148. [2023- 12-05]. https://doi.org/10.1016/j.measurement.2019.106946. [9] 郭明晓, 潘晨, 王振尧, 等. 碳钢在模拟海洋工业大气环境中初期腐蚀行为研究[J]. 金属学报, 2018, 54(1): 65-75. [10] 梁彩凤, 侯文泰. 碳钢、低合金钢16年大气暴露腐蚀研究[J]. 中国腐蚀与防护学报, 2005, 25(1): 2-7. [11] S FELIU, M MORCILLO, and B CHICO, Effect of distance from sea on atmospheric corrosion rate [J], CORROSION 55, 9883891(1999). [12] REVIE R W, UHLIG H H. Corrosion and corrosion control: an introduction to corrosion science and engineering [M]. Hoboken: John Wiley & Sons, 2008. [13] WEISSENRIEDER J, LEYGRAF C. In situ studies of filiform corrosion of iron [J/OL]. Journal of The Electrochemical Society, 2004, 151(3). [2023-12-05]. https//iopscience.iop.org/article/10. 1149. [14] S ESMAILZADEH, M ALIOFKHAZRAEI, and H SARLAK, Interpretation of cyclic potentiodynamic polarization test results for study of corrosion behavior of metals: a review [J], Protection of Metals and Physical Chemistry of Surfaces 54, 5976989(2018). [15] 刘新灵, 张峥, 陶春虎. 疲劳断口定量分析[M]. 北京: 国防工业出版社, 2010. [16] E WYCISK, A SOLBACH, and S SIDDIQUE, et al.Effects of defects in laser additive manufactured Ti-6Al-4V on fatigue properties [J], Physics Procedia 56, 371378(2014). [17] LIU X H, XIAO L F, CAI C S, et al. Fatigue properties investigation of corroded high-performance steel specimens [J/OL]. Journal of Materials in Civil Engineering, 2021, 33(1). [2023- 12-05]. https://doi.org/10.1061/(ASCE)MT.1943-5533.0003508. [18] S I ROKHLIN, J Y KIM, and H NAGY, et al.Effect of pitting corrosion on fatigue crack initiation and fatigue life [J], Engineering Fracture Mechanics 62, 4-5425444(1999). [19] 卫星, 揭志羽, 廖晓璇, 等. 钢结构桥梁焊接节点腐蚀疲劳研究进展[J]. 钢结构, 2019, 34(1): 108-112. [20] D H KANG, J K LEE, and T W KIM, Corrosion Fatigue Crack Propagation of High-strength Steel HSB800 in a seawater environment [J], Procedia Engineering 10, 11701175(2011). [21] 吴开源, 王勇, 赵卫民. 金属结构的锈蚀与防护[M]. 青岛: 中国石油大学出版社, 2000. [22] HOEPPNER D. Model for prediction of fatigue lives based upon a pitting corrosion fatigue process [M]//Fatigue Mechanisms. ASTM International, 1979. [23] Y KONDO, Prediction of fatigue crack initiation life based on pit growth [J], CORROSION 45, 1711(1989). [24] D G HARLOW, and R P WEI, Probability approach for prediction of corrosion and corrosion fatigue life [J], AIAA Journal 32, 1020732079(1994). [25] ISHIHARA S, SAKA S, NAN Z, et al. Prediction of corrosion fatigue lives of aluminium alloy on the basis of corrosion pit growth law [J]. Fatigue & Fracture of Engineering Materials & Structures, 2006, 29(6): 472-480. [26] R P WEI, Some aspects of environment-enhanced fatigue-crack growth [J], Engineering Fracture Mechanics 1, 4633651(1970). [27] 郭万林. 复杂环境下的三维疲劳断裂[J]. 航空学报, 2002, 23(3): 215-220. [28] ISO. Corrosion of metals and alloys-corrosivity of atmospheres- classification, determination and estimation: ISO 9223: 2012[S]. Geneva, Switzerland: the International Organization for Standardization, 2012. [29] 中华人民共和国科学技术部. 国家材料环境腐蚀野外科学观测研究平台[EB/OL]. [2023-08-25]. https://most.gov.cn/ztzl/kjzykfgx/kjzygjjctjpt/kjzyptml/201407/t20140716_114280.html. [30] R E MELCHERS, Probabilistic model for marine corrosion of steel for structural reliability assessment [J], Journal of Structural Engineering 129, 1114841493(2003). [31] W ZHANG, X SONG, and X GU, et al.Tensile and fatigue behavior of corroded rebars [J], Construction and Building Materials 34, 409417(2012). [32] W ZHANG, B ZHOU, and X GU, et al.Probability distribution model for cross-sectional area of corroded reinforcing steel bars [J], Journal of Materials in Civil Engineering 26, 5822832(2014). [33] X GU, H GUO, and B ZHOU, et al.Corrosion non-uniformity of steel bars and reliability of corroded RC beams [J], Engineering Structures 167, 188202(2018). [34] A VALOR, F CALEYO, and D RIVAS, et al.Stochastic approach to pitting-corrosion-extreme modelling in low-carbon steel [J], Corrosion Science 52, 3910915(2010). [35] I T KIM, D K DAO, and Y S JEONG, et al.Effect of corrosion on the tension behavior of painted structural steel members [J], Journal of Constructional Steel Research 133, 256268(2017). [36] S XU, and B QIU, Experimental study on fatigue behavior of corroded steel [J], Materials Science and Engineering: A 584, 163169(2013). [37] Â P TEIXEIRA, and C G SOARES, Ultimate strength of plates with random fields of corrosion [J], Structure and Infrastructure Engineering 4, 5363370(2008). [38] K VAN DER WALDE, and B HILLBERRY, Characterization of pitting damage and prediction of remaining fatigue life [J], International Journal of Fatigue 30, 1106118(2008). [39] J BHANDARI, F KHAN, and R ABBASSI, et al.Modelling of pitting corrosion in marine and offshore steel structures - A technical review [J], Journal of Loss Prevention in the Process Industries 37, 3962(2015). [40] M CERIT, K GENEL, and S EKSI, Numerical investigation on stress concentration of corrosion pit [J], Engineering Failure Analysis 16, 724672472(2009). [41] WANG Y M, XU S H, LI H, et al. Surface characteristics and stochastic model of corroded structural steel under general atmospheric environment [J]. Acta Metall Sinica, 2019, 56(2): 148-160. [42] E N CODARO, R Z NAKAZATO, and A L HOROVISTIZ, et al.An image processing method for morphology characterization and pitting corrosion evaluation [J], Materials Science and Engineering: A 334, 1-2298306(2002). [43] J L DE LA CRUZ, R LINDELAUF, and L KOENE, et al.Stochastic approach to the spatial analysis of pitting corrosion and pit interaction [J], Electrochemistry Communications 9, 2325330(2007). [44] J L DE LA CRUZ, and M GUTIéRREZ, Spatial statistics of pitting corrosion patterning: Quadrat counts and the non-homogeneous Poisson process [J], Corrosion Science 50, 514411448(2008). [45] K TARANTSEVA, Models and methods of forecasting pitting corrosion [J], Protection of Metals and Physical Chemistry of Surfaces 46, 1139147(2010). [46] S M GRAVANO, and J R GALVELE, Transport processes in passivity breakdown—III. Full hydrolysis plus ion migration plus buffers [J], Corrosion Science 24, 6517534(1984). [47] J GALVELE, Transport processes in passivity breakdown—II. Full hydrolysis of the metal ions [J], Corrosion Science 21, 8551579(1981). [48] KOMP M. Atmospheric corrosion ratings of weethering steels: calculation and significance [J]. Materials Performance, 1987, 26(7): 42-44. [49] S QIN, and W CUI, Effect of corrosion models on the time-dependent reliability of steel plated elements [J], Marine Structures 16, 11534(2003). [50] R E MELCHERS, Modeling of marine immersion corrosion for mild and Low-Alloy steels: part 1: phenomenological model [J], CORROSION 59, 4319334(2003). [51] R E MELCHERS, Effect on marine immersion corrosion of carbon content of low alloy steels [J], Corrosion Science 45, 1126092625(2003). [52] D E KLINESMITH, R H MCCUEN, and P ALBRECHT, Effect of environmental conditions on corrosion rates [J], Journal of Materials in Civil Engineering 19, 2121129(2007). [53] S V LISHCHUK, R AKID, and K WORDEN, et al.A cellular automaton model for predicting intergranular corrosion [J], Corrosion Science 53, 825182526(2011). [54] B MALKI, and B BAROUX, Computer simulation of the corrosion pit growth [J], Corrosion Science 47, 1171182(2005). [55] C A APOSTOLOPOULOS, and M P PAPADOPOULOS, Tensile and low cycle fatigue behavior of corroded reinforcing steel bars S400[J], Construction and Building Materials 21, 4855864(2007). [56] S KAINUMA, Y S JEONG, and J H AHN, Investigation on the stress concentration effect at the corroded surface achieved by atmospheric exposure test [J], Materials Science and Engineering: A 602, 8997(2014). [57] NIE B, XU S, YU J, et al. Experimental investigation of mechanical properties of corroded cold-formed steels [J/OL]. Journal of Constructional Steel Research, 2019, 162. [2023- 12-05]. https://doi.org/10.1016/j.jcsr.2019.105706. [58] L LI, C Q LI, and M MAHMOODIAN, et al.Corrosion induced degradation of fatigue strength of steel in service for 128 years [J], Structures 23, 415424(2020). [59] T NAKAI, H MATSUSHITA, and N YAMAMOTO, Effect of pitting corrosion on strength of web plates subjected to patch loading [J], Thin-Walled Structures 44, 11019(2006). [60] ISO. Corrosion tests in artificial atmospheres-salt spray tests: ISO 9227: 2017[S]. Geneva, Switzerland: the International Organization for Standardization, 2017. [61] S GKATZOGIANNIS, J WEINERT, and I ENGELHARDT, et al.Correlation of laboratory and real marine corrosion for the investigation of corrosion fatigue behaviour of steel components [J], International Journal of Fatigue 126, 90102(2019). [62] R RAHGOZAR, and Y SHARIFI, Remaining fatigue life of corroded steel structural members [J], Advances in Structural Engineering 14, 5881890(2011). [63] S XU, and Y WANG, Estimating the effects of corrosion pits on the fatigue life of steel plate based on the 3D profile [J], International Journal of Fatigue 72, 2741(2015). [64] K K SANKARAN, R PEREZ, and K V JATA, Effects of pitting corrosion on the fatigue behavior of aluminum alloy 7075-T6: modeling and experimental studies [J], Materials Science and Engineering: A 297, 1-2223229(2001). [65] I S RAJU, and J C NEWMAN JR., Stress-intensity factors for a wide range of semi-elliptical surface cracks in finite-thickness plates [J], Engineering Fracture Mechanics 11, 4817829(1979). [66] Y MURAKAMI, Analysis of stress intensity factors of modes I, II and III for inclined surface cracks of arbitrary shape [J], Engineering Fracture Mechanics 22, 1101114(1985). [67] M SURARATCHAI, J LIMIDO, and C MABRU, et al.Modelling the influence of machined surface roughness on the fatigue life of aluminium alloy [J], International Journal of Fatigue 30, 1221192126(2008). [68] LIU X G, ZHANG W P, GU X L, et al. Probability distribution model of stress impact factor for corrosion pits of high-strength prestressing wires [J/OL]. Engineering Structures, 2021, 230. [2023- 12-05]. https://doi.org/10.1016/j.engstruct.2020.111686. [69] J SHENG, and J XIA, Effect of simulated pitting corrosion on the tensile properties of steel [J], Construction and Building Materials 131, 90100(2017). [70] C CUI, R MA, and A CHEN, et al.Experimental study and 3D cellular automata simulation of corrosion pits on Q345 steel surface under salt-spray environment [J], Corrosion Science 154, 8089(2019). [71] T CHEN, L HU, and N ZHANG, et al.Boundary element analysis of fatigue behavior for CFRP-strengthened steel plates with center inclined cracks [J], Thin-Walled Structures 125, 164171(2018). [72] T CHEN, Q Q YU, and X L GU, et al.Stress intensity factors (KI) of cracked non-load-carrying cruciform welded joints repaired with CFRP materials [J], Composites Part B: Engineering 45, 116291635(2013). [73] T CHEN, Q Q YU, and X L GU, et al.Study on fatigue behavior of strengthened non-load-carrying cruciform welded joints using carbon fiber sheets [J], International Journal of Structural Stability and Dynamics 12, 1179194(2012). [74] YU Q Q, CHEN T, GU X L, et al. Fatigue behaviour of CFRP strengthened out-of-plane gusset welded joints with double cracks [J]. Polymers, 2015, 2015, 7(9): 1617-1637. [75] Q Q YU, T CHEN, and X L GU, et al.Fatigue behaviour of CFRP strengthened steel plates with different degrees of damage [J], Thin-Walled Structures 69, 1017(2013). [76] YU Q Q, WU Y F. Fatigue strengthening of cracked steel beams with different configurations and materials [J/OL]. Journal of Composites for Construction, 2017, 21(2). [2023-12-05]. https://doi.org/10.1061/(ASCE)CC.1943-5614.0000750. [77] CHEN Z Y, GU X L, ZHAO X L, et al. Fatigue tests on Fe-SMA strengthened steel plates considering thermal effects [J/OL]. Journal of Structural Engineering, 2023, 149(3). [2023-12-05]. https://doi.org/10.1061/JSENDH.STENG-1169. [78] CHEN Z Y, GU X L, VOLLMER M, et al. Recovery stress behavior of Fe-SMA under fatigue and thermal loading [J/OL]. Thin-Walled Structures, 2023, 188. [2023-12-05]. https://doi.org/10.1016/j.tws.2023.110799. [79] GU X L, CHEN Z Y, YU Q Q, et al. Stress recovery behavior of an Fe-Mn-Si shape memory alloy [J/OL]. Engineering Structures, 2021, 243. [2023-12-05]. https://doi.org/10.1016/j.engstruct.2021.112710. [80] 陈振宇, 余倩倩, 顾祥林. 形状记忆合金补强损伤钢板疲劳性能研究[J]. 建筑结构学报, 2021, 42(增刊1): 411-417. [81] Q Q YU, T CHEN, and X L GU, et al.Boundary element analysis of edge cracked steel plates strengthened by CFRP laminates [J], Thin-Walled Structures 100, 147157(2016). [82] YU Q Q, CHEN T, GU X L, et al. Boundary element analysis of fatigue crack growth for CFRP-strengthened steel plates with longitudinal weld attachments [J/OL]. Journal of Composites for Construction, 2015, 19(2). [2023-12-05]. https://ascelibrary.org/doi/10.1061/%28ASCE%29CC.1943-5614.0000505. [83] Q Q YU, X L ZHAO, and T CHEN, et al.Crack propagation prediction of CFRP retrofitted steel plates with different degrees of damage using BEM [J], Thin-Walled Structures 82, 145158(2014). [84] YU Q Q, ZHAO X L, XIAO Z G, et al. Evaluation of stress intensity factor for CFRP bonded steel plates [J]. Advances in Structural Engineering, 2016, 17(12): 1729-1746.
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