نشریه علوم و مهندسی سطح

نشریه علوم و مهندسی سطح

ارزیابی رفتار الکتروشیمیایی و ضدباکتریایی پوشش کلسیم-فسفاتی تشکیل‏ شده به روش اکسیداسیون الکترولیتی پلاسمایی روی تیتانیم خالص

نوع مقاله : مقاله پژوهشی

نویسندگان
آرش فتاح الحسینی 1
مریم مولایی 1
مهشاد جاویدمقدم 2
1 دانشگاه بوعلی سینا
2 اهواز، دانشگاه شهید چمران، دانشکده دامپزشکی، گروه آموزشی بهداشت مواد غذایی
چکیده
هدف از این پژوهش، بررسی رفتار الکتروشیمیایی و ضدباکتریایی پوشش کلسیم-فسفاتی تشکیل‏شده به روش اکسیداسیون الکترولیتی پلاسمایی (PEO) با استفاده از الکترولیت حاوی نمک‏های Na3PO4.12H2O، KOH و Ca3(PO4)2 روی تیتانیم خالص است. به این منظور، ساختار سطح پوشش به وسیله تصاویر میکروسکوپی الکترونی روبشی و ساختار شیمیایی آن توسط آنالیز طیف‏سنجی رامان ارزیابی شد. رفتار الکتروشیمیایی پوشش در محلول شبیه‏ساز بدن (SBF) و با استفاده از آزمون‏های طیف‏سنجی امپدانس الکتروشیمیایی و پلاریزاسیون پتانسیودینامیک مطالعه شد. رفتار ضدباکتریایی پوشش‏های PEO تحت دو شرایط بدون تابش و تحت تابش پرتو فرابنفش و در مقابل باکتری گرم-مثبت استافیلوکوکوس اورئوس سنجیده شد. نتایج نشان داد که پوشش PEO تشکیل‏شده دارای ساختاری متخلخل و شامل فاز بلوری آناتاز بود. پس از 7 روز تماس نمونه‏ها با محلول SBF، مقدار مقاومت پلاریزاسیون (Rp) زیرلایه تیتانیم خالص و پوشش PEO به ترتیب 097/0 و 263/0 مگااهم در سانتی‏مترمربع به دست آمد. بنابراین، با اصلاح سطح تیتانیم خالص به کمک فرایند پوشش‏دهی PEO، مقاومت به خوردگی آن در حدود 7/2 برابر افزایش پیدا کرد. پس از قرار دادن پوشش‏های PEO در معرض تابش پرتو فرابنفش، رفتار ضدباکتریایی آن‏ها به دلیل تولید گونه‏های اکسیژن فعال (ROS) توسط پوشش‏ها و در نتیجه آسیب به Deoxyribonucleic acid (DNA)، پروتئین‏ها و دیگر اجزای درون‏سلولی و در نهایت مرگ باکتری‏‏ها، بهبود یافت.
کلیدواژه‌ها
اکسیداسیون الکترولیتی پلاسمایی
پوشش
تیتانیم
خوردگی
ضدباکتریایی

موضوعات

[1]         M. Molaei, A. Fattah-Alhosseini and S.O. Gashti, Sodium aluminate concentration effects on microstructure and corrosion behavior of the plasma electrolytic oxidation coatings on pure titanium, Metallurgical and Materials Transactions A: Physical Metallurgy and Materials Science, 49 (2018) 368–375.

[2]         A.R. Luz, G.G. de Lima, E. Santos, B.L. Pereira, H.H. Sato, C.M. Lepienski, D.B. Lima, C. Laurindo, C.R. Grandini and N.K. Kuromoto, Tribo-mechanical properties and cellular viability of electrochemically treated Ti-10Nb and Ti-20Nb alloys, Journal of Alloys and Compounds, 779 (2019) 129–139.

[3]         M.J. Hwang, B.J. Kim, Y.H. Song, H.J. Song and Y.J. Park, Osteoconductivity of binary titanium alloys with different micro/nanoporous surfaces, Journal of Nanoscience and Nanotechnology, 17 (2017) 2828–2832.

[4]         S.H. Uhm, J.S. Kwon, D.H. Song, E.J. Lee, W.S. Jeong, S. Oh, K.N. Kim, E.H. Choi and K.M. Kim, Long-term antibacterial performance and bioactivity of plasma-engineered Ag-NPs/TiO2 nanotubes for bio-implants, Journal of Biomedical Nanotechnology, 12 (2016) 1890–1906.

[5]         A. Fattah-alhosseini, M. Molaei, N. Attarzadeh and K. Babaei, F. Attarzadeh, On the enhanced antibacterial activity of plasma electrolytic oxidation (PEO) coatings that incorporate particles: A review, Ceramics International, 46 (2020) 20587–20607.

[6]         H. Khanmohammadi, S.R. Allahkaram, A. Igual Munoz and N. Towhidi, The influence of current density and frequency on the microstructure and corrosion behavior of plasma electrolytic oxidation coatings on Ti6Al4V, Journal of Materials Engineering and Performance, 26 (2017) 931–944.

[7]         O.A. Galvis, D. Quintero, J.G. Castaño, H. Liu, G.E. Thompson, P. Skeldon and F. Echeverría, Formation of grooved and porous coatings on titanium by plasma electrolytic oxidation in H2SO4/H3PO4 electrolytes and effects of coating morphology on adhesive bonding, Surface and Coatings Technology, 269 (2015) 238–249.

[8]         A. Fattah-alhosseini, S.O. Gashti and M. Molaie, Effects of disodium phosphate concentration (Na2HPO4·2H2O) on microstructure and corrosion resistance of plasma electrolytic oxidation (PEO) coatings on 2024 Al alloy, Journal of Materials Engineering and Performance, 27 (2018) 825–834.

[9]         M. Daroonparvar, M.A.M. Yajid, N.M. Yusof, H.R. Bakhsheshi-Rad, E. Hamzah and T. Mardanikivi, Deposition of duplex MAO layer/nanostructured titanium dioxide composite coatings on Mg-1%Ca alloy using a combined technique of air plasma spraying and micro arc oxidation, Journal of Alloys and Compounds, 649 (2015) 591–605.

[10]       M. Fazel, H.R. Salimijazi and M. Shamanian, Improvement of corrosion and tribocorrosion behavior of pure titanium by subzero anodic spark oxidation, ACS Applied Materials & Interfaces,10 (2018) 15281–15287.

[11]       T. Kokubo and H. Takadama, How useful is SBF in predicting in vivo bone bioactivity?, Biomaterials, 27 (2006) 2907–2915.

[12]       G.T. Burstein, A hundred years of Tafel’s Equation: 1905-2005, Corrosion Science, 47 (2005) 2858–2870.

[13]       M. Du, L. Huang, M. Peng, F. Hu, Q. Gao, Y. Chen and P. Liu, Preparation of vancomycin-loaded alginate hydrogel coating on magnesium alloy with enhanced anticorrosion and antibacterial properties, Thin Solid Films, 693 (2020).

[14]       D. Kajánek, B. Hadzima, J. Buhagiar, J. Wasserbauer and M. Jacková, Corrosion degradation of AZ31 magnesium alloy coated by plasma electrolytic oxidation, Transportation Research Procedia, 40 (2019) 51–58.

[15]       S. Fatimah, F. Khoerunnisa, J.H. Kwon, Y.H. Kim and Y.G. Ko, Inorganic-metallic bilayer on Mg alloy via wet and dry plasma treatments, Surface and Coatings Technology, 360 (2019) 56–63.

[16]       C.W. Yeh, K.R. Wu, C.H. Hung, H.C. Chang and C.J. Hsu, Preparation of porous F-WO3/TiO2 films with visible-light photocatalytic activity by microarc oxidation, International Journal of Photoenergy, 2012 (2012).

[17]       M. Molaei, A. Fattah-Alhosseini and M.K. Keshavarz, Influence of different sodium-based additives on corrosion resistance of PEO coatings on pure Ti, Journal of Asian Ceramic Societies, 7 (2019) 247–255.

[18]       K. Venkateswarlu, N. Rameshbabu, S. Sreekanth, A.C. Bose, V. Muthupandi, N.K. Babu and S. Subramanian, Role of electrolyte additives on in-vitro electrochemical behavior of micro arc oxidized titania films on Cp Ti, Applied Surface Science, 258 (2012) 6853–6863.

[19]       K. Venkateswarlu, S. Suresh, N. Rameshbabu, A.C. Bose and S. Subramanian, Effect of electrolyte chemistry on the structural, morphological and corrosion characteristics of titania films developed on Ti-6Al-4V implant material by plasma electrolytic oxidation, Key Engineering Materials, 493–494 (2012) 436–441.

[20]       X. Rao, C.L. Chu, Q. Sun and Y.Y. Zheng, Fabrication and apatite inducing ability of different porous titania structures by PEO treatment, Materials Science and Engineering C, 66 (2016) 297–305.

[21]       C.A.H. Laurindo, L.M. Bemben, R.D. Torres, S.A. Mali, J.L. Gilbert and P. Soares, Influence of the annealing treatment on the tribocorrosion properties of Ca and P containing TiO2 produced by plasma electrolytic oxidation, Materials Technology, 31 (2016) 719–725.

[22]       F. Wang, B. Hou, K. Yuan and Y. Wang, Compactness of coatings treated by MAO and LSM on Ti alloy, Emerging Materials Research, 4 (2015) 265–272.

[23]       Z. Yan, M. Men, B. Sun, Q. Wang, Y. Han and M. Wen, Effect of electrode oxide film in micro arc oxidation on water treatment, Journal of Advanced Oxidation Technologies, 20 (2017).

[24]       F. Reshadi, G. Faraji, M. Baniassadi and M. Tajeddini, Surface modification of severe plastically deformed ultrafine grained pure titanium by plasma electrolytic oxidation, Surface and Coatings Technology, 316 (2017) 113–121.

[25]       S. Franz, H. Arab, G.L. Chiarello, M. Bestetti and E. Selli, Single-step preparation of large area TiO2 photoelectrodes for water splitting, Advanced Energy Materials, 10 (2020) 2000652.

[26]       H. Fakhr Nabavi and M. Aliofkhazraei, Morphology, composition and electrochemical properties of bioactive-TiO2/HA on CP-Ti and Ti6Al4V substrates fabricated by alkali treatment of hybrid plasma electrolytic oxidation process (estimation of porosity from EIS results), Surface and Coatings Technology, 375 (2019) 266–291.

[27]       E. Nikoomanzari, M. Karbasi, W. C.M.A. Melo, H. Moris, K. Babaei, S. Giannakis and A. Fattah-alhosseini, Impressive strides in antibacterial performance amelioration of Ti-based implants via plasma electrolytic oxidation (PEO): A review of the recent advancements, Chemical Engineering Journal, 441 (2022) 136003.

[28]       S. Banerjee, D.D. Dionysiou and S.C. Pillai, Self-cleaning applications of TiO2 by photo-induced hydrophilicity and photocatalysis, Applied Catalysis B: Environmental, 176–177 (2015) 396–428.

 

[1] M. Molaei, A. Fattah-Alhosseini and S.O. Gashti, Sodium aluminate concentration effects on microstructure and corrosion behavior of the plasma electrolytic oxidation coatings on pure titanium, Metallurgical and Materials Transactions A: Physical Metallurgy and Materials Science, 49 (2018) 368–375.
[2] A.R. Luz, G.G. de Lima, E. Santos, B.L. Pereira, H.H. Sato, C.M. Lepienski, D.B. Lima, C. Laurindo, C.R. Grandini and N.K. Kuromoto, Tribo-mechanical properties and cellular viability of electrochemically treated Ti-10Nb and Ti-20Nb alloys, Journal of Alloys and Compounds, 779 (2019) 129–139.
[3] M.J. Hwang, B.J. Kim, Y.H. Song, H.J. Song and Y.J. Park, Osteoconductivity of binary titanium alloys with different micro/nanoporous surfaces, Journal of Nanoscience and Nanotechnology, 17 (2017) 2828–2832.
[4] S.H. Uhm, J.S. Kwon, D.H. Song, E.J. Lee, W.S. Jeong, S. Oh, K.N. Kim, E.H. Choi and K.M. Kim, Long-term antibacterial performance and bioactivity of plasma-engineered Ag-NPs/TiO2 nanotubes for bio-implants, Journal of Biomedical Nanotechnology, 12 (2016) 1890–1906.
[5] A. Fattah-alhosseini, M. Molaei, N. Attarzadeh and K. Babaei, F. Attarzadeh, On the enhanced antibacterial activity of plasma electrolytic oxidation (PEO) coatings that incorporate particles: A review, Ceramics International, 46 (2020) 20587–20607.
[6] H. Khanmohammadi, S.R. Allahkaram, A. Igual Munoz and N. Towhidi, The influence of current density and frequency on the microstructure and corrosion behavior of plasma electrolytic oxidation coatings on Ti6Al4V, Journal of Materials Engineering and Performance, 26 (2017) 931–944.
[7] O.A. Galvis, D. Quintero, J.G. Castaño, H. Liu, G.E. Thompson, P. Skeldon and F. Echeverría, Formation of grooved and porous coatings on titanium by plasma electrolytic oxidation in H2SO4/H3PO4 electrolytes and effects of coating morphology on adhesive bonding, Surface and Coatings Technology, 269 (2015) 238–249.
[8] A. Fattah-alhosseini, S.O. Gashti and M. Molaie, Effects of disodium phosphate concentration (Na2HPO4·2H2O) on microstructure and corrosion resistance of plasma electrolytic oxidation (PEO) coatings on 2024 Al alloy, Journal of Materials Engineering and Performance, 27 (2018) 825–834.
[9] M. Daroonparvar, M.A.M. Yajid, N.M. Yusof, H.R. Bakhsheshi-Rad, E. Hamzah and T. Mardanikivi, Deposition of duplex MAO layer/nanostructured titanium dioxide composite coatings on Mg-1%Ca alloy using a combined technique of air plasma spraying and micro arc oxidation, Journal of Alloys and Compounds, 649 (2015) 591–605.
[10] M. Fazel, H.R. Salimijazi and M. Shamanian, Improvement of corrosion and tribocorrosion behavior of pure titanium by subzero anodic spark oxidation, ACS Applied Materials & Interfaces,10 (2018) 15281–15287.
[11] T. Kokubo and H. Takadama, How useful is SBF in predicting in vivo bone bioactivity?, Biomaterials, 27 (2006) 2907–2915.
[12] G.T. Burstein, A hundred years of Tafel’s Equation: 1905-2005, Corrosion Science, 47 (2005) 2858–2870.
[13] M. Du, L. Huang, M. Peng, F. Hu, Q. Gao, Y. Chen and P. Liu, Preparation of vancomycin-loaded alginate hydrogel coating on magnesium alloy with enhanced anticorrosion and antibacterial properties, Thin Solid Films, 693 (2020).
[14] D. Kajánek, B. Hadzima, J. Buhagiar, J. Wasserbauer and M. Jacková, Corrosion degradation of AZ31 magnesium alloy coated by plasma electrolytic oxidation, Transportation Research Procedia, 40 (2019) 51–58.
[15] S. Fatimah, F. Khoerunnisa, J.H. Kwon, Y.H. Kim and Y.G. Ko, Inorganic-metallic bilayer on Mg alloy via wet and dry plasma treatments, Surface and Coatings Technology, 360 (2019) 56–63.
[16] C.W. Yeh, K.R. Wu, C.H. Hung, H.C. Chang and C.J. Hsu, Preparation of porous F-WO3/TiO2 films with visible-light photocatalytic activity by microarc oxidation, International Journal of Photoenergy, 2012 (2012).
[17] M. Molaei, A. Fattah-Alhosseini and M.K. Keshavarz, Influence of different sodium-based additives on corrosion resistance of PEO coatings on pure Ti, Journal of Asian Ceramic Societies, 7 (2019) 247–255.
[18] K. Venkateswarlu, N. Rameshbabu, S. Sreekanth, A.C. Bose, V. Muthupandi, N.K. Babu and S. Subramanian, Role of electrolyte additives on in-vitro electrochemical behavior of micro arc oxidized titania films on Cp Ti, Applied Surface Science, 258 (2012) 6853–6863.
[19] K. Venkateswarlu, S. Suresh, N. Rameshbabu, A.C. Bose and S. Subramanian, Effect of electrolyte chemistry on the structural, morphological and corrosion characteristics of titania films developed on Ti-6Al-4V implant material by plasma electrolytic oxidation, Key Engineering Materials, 493–494 (2012) 436–441.
[20] X. Rao, C.L. Chu, Q. Sun and Y.Y. Zheng, Fabrication and apatite inducing ability of different porous titania structures by PEO treatment, Materials Science and Engineering C, 66 (2016) 297–305.
[21] C.A.H. Laurindo, L.M. Bemben, R.D. Torres, S.A. Mali, J.L. Gilbert and P. Soares, Influence of the annealing treatment on the tribocorrosion properties of Ca and P containing TiO2 produced by plasma electrolytic oxidation, Materials Technology, 31 (2016) 719–725.
[22] F. Wang, B. Hou, K. Yuan and Y. Wang, Compactness of coatings treated by MAO and LSM on Ti alloy, Emerging Materials Research, 4 (2015) 265–272.
[23] Z. Yan, M. Men, B. Sun, Q. Wang, Y. Han and M. Wen, Effect of electrode oxide film in micro arc oxidation on water treatment, Journal of Advanced Oxidation Technologies, 20 (2017).
[24] F. Reshadi, G. Faraji, M. Baniassadi and M. Tajeddini, Surface modification of severe plastically deformed ultrafine grained pure titanium by plasma electrolytic oxidation, Surface and Coatings Technology, 316 (2017) 113–121.
[25] S. Franz, H. Arab, G.L. Chiarello, M. Bestetti and E. Selli, Single-step preparation of large area TiO2 photoelectrodes for water splitting, Advanced Energy Materials, 10 (2020) 2000652.
[26] M. Molaei, A. Fattah-alhosseini, M. Nouri, P. Mahmoodi and A. Nourian, Incorporating TiO2 nanoparticles to enhance corrosion resistance, cytocompatibility, and antibacterial properties of PEO ceramic coatings on titanium, Ceramics International, 48 (2022) 21005–21024.
[27] H. Fakhr Nabavi and M. Aliofkhazraei, Morphology, composition and electrochemical properties of bioactive-TiO2/HA on CP-Ti and Ti6Al4V substrates fabricated by alkali treatment of hybrid plasma electrolytic oxidation process (estimation of porosity from EIS results), Surface and Coatings Technology, 375 (2019) 266–291.
[28] E. Nikoomanzari, M. Karbasi, W. C.M.A. Melo, H. Moris, K. Babaei, S. Giannakis and A. Fattah-alhosseini, Impressive strides in antibacterial performance amelioration of Ti-based implants via plasma electrolytic oxidation (PEO): A review of the recent advancements, Chemical Engineering Journal, 441 (2022) 136003.
[29] S. Banerjee, D.D. Dionysiou and S.C. Pillai, Self-cleaning applications of TiO2 by photo-induced hydrophilicity and photocatalysis, Applied Catalysis B: Environmental, 176–177 (2015) 396–428.
نشریه علوم و مهندسی سطح
دوره 19، شماره 55
بهار 1402
صفحه 33-45