Abstract
This paper focuses on the simulation of the galvanic corrosion process of orthopedic bimetallic couples used as biomaterials. Galvanic corrosion in the human body is a specific biocorrosion process that occurs due to the interaction of implanted metallic materials with different electrochemical properties. This biocorrosion process starts due to the electrochemical interaction in the electrolytic environment when different biometals are in contact, such as tibia-femur prosthesis or screw–plate couples. It progresses faster for biometals, leading to harmful damage to the human body due to the corrosion debris. Because of the released ions, enzymes, and hormones, body tissues have an electrolytic feature, making the environment very active regarding the corrosion potential. Therefore, biocorrosion is one of the main challenges, especially for bimetallic couples. Simulating this corrosion process sheds light on alternative biomaterial designs that can reduce or prevent the consequences of galvanic corrosion. In this study, galvanic corrosion potentials of implanted biometal couples having various electrochemical features are comparatively simulated using the electrochemical analysis module of a multiphysics simulation platform based on finite element method (FEM). With this regard, electric current density, and distribution between bimetallic couples, which are placed in two different electrolytic environments in the human body, are numerically simulated. It has been achieved that the more active implants result in more electric current density leading to the faster corrosion process. In the study, galvanic corrosion protection methods are proposed by a comparative analysis of corrosion risk and potential on the orthopedic aimed bimetallic couples.
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References
Mohanakrishna G, Abu-Reesh IM, Al-Raoush RI (2018) Biological anodic oxidation and cathodic reduction reactions for improved bioelectrochemical treatment of petroleum refinery wastewater. J Clean Prod 190:44–52
Callister WD, Rehwisch DG (2009) Materials science and engineering. Wiley, New York
Yang YF, Yang H, Liang CJ (2016) Influences of saccharin on electrochemical behavior of nickel electrodeposition. In Proceedings of DEStech transactions on materials science and engineering, pp 1–7
Hakansson E, Hoffman J, Predecki P, Kumosa M (2017) The role of corrosion product deposition in galvanic corrosion of aluminum/carbon systems. Corros Sci 114:1–16
Mahyudin F, Widhiyanto L (2016) Biomaterials in orthopaedics. In: Mahyudin F, Widhiyanto L (eds) Biomaterials and medical devices. Springer, New York, pp 161–181
Manthe M, Blasser K, Beauchamp C, O’Connor MI (2016) Trunnion corrosion causing failure in metal-on-polyethylene total hip arthroplasty with monolithic femoral components. Reconstr Rev 6(1):13–22
Matharu GS, Berryman F, Dunlop DJ, Judge A, Murray DW, Pandit HG (2019) Has the threshold for revision surgery for adverse reactions to metal debris changed in metal-on-metal hip arthroplasty patients? A cohort study of 239 patients using an adapted risk-stratification algorithm. Acta Orthop 90(6):530–536
De Azevedo CJ, Carneiro MRA, De Souza KCL, Júnior S, Ceccatto VM (2019) Biomaterials characterization for orthopedic orthoses: a systematic review. J Mater Sci Nanotechnol 7(1):1–6
Eliaz N (2019) Corrosion of metallic biomaterials: a review. Materials 12(3):1–91
Jeong WC, Meng ZJ, Kim HJ, Woo EJ (2014) Experimental validations of in vivo human musculoskeletal tissue conductivity images using MR-based electrical impedance tomography. Bioelectromagnetics 35(5):363–372
Hiromoto S, Hanawai T (2006) Electrochemical properties of 316L stainless steel with culturing L929 fibroblasts. J R Soc Interface 3(9):195–505
Singh IB, Singh M, Das S (2015) A comparative corrosion behavior for Mg, AZ31 and AZ91 alloys in 3.5% NaCl solution. J Magn Alloys 3(2):142–148
Hsu RW, Yang CC, Huang CA, Chen YS (2004) Electrochemical corrosion properties of Ti-6Al-4V implant alloy in the biological environment. Mater Sci Eng A 380(1):100–109
Shahba RMA, Ghannem WA, El-Shenawy AE, Ahmed ASI, Tantawy SM (2011) Corrosion and inhibition of Ti-6Al-4V alloy in NaCl solution. Int J Electrochem Sci 6:5499–5509
Kayali Y, Büyüksagis A, Yalcin Y (2013) Corrosion and wear behaviors of boronized AISI 316L stainless steel. Met Mater Int 19:1053–1061
Adlakha I, Bazehhour BG, Muthegowda NC, Solanki KN (2018) Effect of mechanical loading on the galvanic corrosion behavior of a magnesium-steel structural joint. Corros Sci 133:300–309
ASM Aerospace Specification Metals Inc. (2020) Titanium Ti-6Al-4V (Grade5), annealed. ASM. http://asm.matweb.com/search/SpecificMaterial.asp?bassnum=MTP641. Accessed 12 Nov 2020
ASM Aerospace Specification Metals Inc. (2020) AISI type 316L stainless steel, annealed bar. ASM. http://asm.matweb.com/search/SpecificMaterial.asp?bassnum=MQ316Q. Accessed 12 Nov 2020
AZO Materials (2020) Magnesium AZ91D cast alloy. AZOM. https://www.azom.com/article.aspx?ArticleID=9219. Accessed 12 Nov 2020
Vignesh RV, Padmanaban R (2019) Modelling corrosion phenomenon of magnesium alloy AZ91 in simulated body fluids. In: Gao D, Fischer A (eds) Advances in mathematical methods and high performance computing. Springer, New York, pp 471–486
Ortiz-Ozuna A, Godínez FA, Ramírez-Barat B, Garcia-Alonso MC, Escudero ML, Fajardo S, Genesca J, Montoya R (2020) pH evolution around the AZ31/Steel galvanic couple under gelled-electrolytes: a numerical and experimental study. Corros Sci 178:109061
Snihirova D, Höche D, Lamaka S, Mir Z, Hack T, Zheludkevich ML (2019) Galvanic corrosion of Ti6Al4V –AA2024 joints in aircraft environment: modelling and experimental validation. Corros Sci 157:70–78
Qingmiao D, Yongxiang Q, Yanyu C (2020) Galvanic corrosion on aircraft components in athmospheric environment. J Chin Soc Corros Prot 40(5):455–462
Nasser A, Clément A, Laurens S, Castel A (2010) Influence of steel-concrete interface condition on galvanic corrosion currents in carbonated concrete. Corros Sci 52(9):2878–2890
Deshpande KB (2010) Validated numerical modelling of galvanic corrosion for couples: magnesium alloy (AE44)-mild steel and AE44-aluminium alloy (AA6063) in brine solution. Corros Sci 52(10):3514–3522
Weng S, Huang Y, Xuan F, Yang Q (2018) Pit evolution around the fusion line of a NiCrMoV steel welded joint caused by galvanic and stress-assisted coupling corrosion. RSC Adv 8(7):3399–3409
Cui T, Liu D, Shi PA, Liu J, Yi Y, Zhou H (2018) Effect of stress and galvanic factors on the corrosion behave of aluminum alloy. J Wuhan Univ Technol 33(3):688–696
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This study was supported by funds from the Erciyes University Scientific Research Projects Unit under grant number FDK-2019-8754.
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Istanbullu, O.B., Akdogan, G. A Simulation Study of Galvanic Corrosion Potential on the Surface of Implantable Biometallic Couples. J Bio Tribo Corros 7, 25 (2021). https://doi.org/10.1007/s40735-020-00462-8
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DOI: https://doi.org/10.1007/s40735-020-00462-8