An overview of Friction stir processing of magnesium alloys reinforced by ceramic additive: Microstructure and mechanical properties
الموضوعات : فصلنامه شبیه سازی و تحلیل تکنولوژی های نوین در مهندسی مکانیک
1 - Advanced Materials Research Center, Department of Materials Engineering, Najafabad Branch, Islamic Azad University, Najafabad, Iran.
الکلمات المفتاحية: Friction Stir Processing, Magnesium, Microstructure, Mechanical Properties, Ceramic Particles,
ملخص المقالة :
The aerospace, automobile, electronics, and biomedical sectors are just a few of the industries that have made substantial use of magnesium (Mg) alloys because of their outstanding specific strength and stiffness, strong vibration absorption, electromagnetic shielding impact, superior machinability, and recyclability. Surface metal matrix composites (SMMCs) are a class of contemporary manufactured substances in which the material's core retains its chemical composition and structure while its surface is altered by the dispersion of secondary phase in the shape of fibers or particles. Friction Stir Processing (FSP) is a cutting-edge method for creating composites that achieves significant grain refinement. Numerous studies have noted improvements in the tribological, microstructure, and mechanical characteristics of magnesium metal matrix composites (MMMCs) made via the FSP process. Currently, the most common types of magnesium alloys consist of RZ5, AZ31, AZ61, AZ91, ZM21, ZK60, and pure magnesium. Carbon nanotubes (CNTs), graphene, carbon fiber, SiC, SiO2, Al2O3, B4C, TiC, and ZrO2 particles are some examples of the reinforcing particles. It is discovered that the FSP treatments change the attributes including tensile strength, hardness, wear and corrosion resistance, and that the type of ceramic particle reinforcement greatly affects the extent of the changes. The principles, technology, microstructure, mechanical characteristics, tribological, and corrosion performance of magnesium and its alloys employing ceramic particle reinforcements are summarized in this paper
References
[1] Clyne, T.W. and Hull, D., 2019. An introduction to composite materials. Cambridge university press.
[2] Mishra, R.S. and Ma, Z.Y., 2005. Friction stir welding and processing. Materials science and engineering: R: reports, 50(1-2), pp.1-78.
[3] Padhy, G.K., Wu, C.S. and Gao, S., 2018. Friction stir based welding and processing technologies-processes, parameters, microstructures and applications: A review. Journal of Materials Science & Technology, 34(1), pp.1-38.
[4] Mishra, R.S., Mahoney, M.W., McFadden, S.X., Mara, N.A. and Mukherjee, A.K., 1999. High strain rate superplasticity in a friction stir processed 7075 Al alloy. Scripta materialia, 42(2), pp.163-168.
[5] Badkoobeh, F., Mostaan, H., Rafiei, M., Bakhsheshi-Rad, H.R. and Berto, F., 2021. Friction stir welding/processing of Mg-based alloys: a critical review on advancements and challenges. Materials, 14(21), p.6726.
[6] Gotawala, N., Kumar, A., Mishra, S. and Shrivastava, A., 2021. Microstructure and texture evolution of complete Mg-3Al-0.2 Ce alloy blanks upon multi-pass friction stir processing with spiral strategy. Materials Today Communications, 26, p.101850.
[7] Zykova, A.P., Tarasov, S.Y., Chumaevskiy, A.V. and Kolubaev, E.A., 2020. A review of friction stir processing of structural metallic materials: Process, properties, and methods. Metals, 10(6), p.772.
[8] Ma, Z.Y., 2008. Friction stir processing technology: a review. Metallurgical and materials Transactions A, 39, pp.642-658.
[9] Butola, R., Pandit, D., Pratap, C. and Chandra, P., 2022. Two decades of friction stir processing–a review of advancements in composite fabrication. Journal of Adhesion Science and Technology, 36(8), pp.795-832.
[10] Tamadon, A., Pons, D.J., Sued, K. and Clucas, D., 2017. Development of metallographic etchants for the microstructure evolution of A6082-T6 BFSW welds. Metals, 7(10), p.423.
[11] Li, K., Liu, X. and Zhao, Y., 2019. Research Status and Prospect of Friction Stir Processing Technology. Coatings, 9 (2), 129.
[12] Chang, C.I., Lee, C.J. and Huang, J.C., 2004. Relationship between grain size and Zener–Holloman parameter during friction stir processing in AZ31 Mg alloys. Scripta materialia, 51(6), pp.509-514.
[13] Chen, F.X., Li, H.J., Guo, J.Q., Yang, Y.S. and Xu, G.Z., 2007, July. Study of the superplasticity of copper alloys used for solid cages. In Materials science forum (Vol. 551, pp. 79-83). Trans Tech Publications Ltd.
[14] Boissière, R., Blandin, J.J. and Salvo, L., 2010. Large deformability of wrought magnesium alloys: is superplasticity needed?. Key Engineering Materials, 433, pp.267-272.
[15] Sadeghi-Ghoghery, M., Kasiri-Asgarani, M. and Amini, K., 2017. Friction stir welding of dissimilar joints between commercially pure titanium alloy and 7075 aluminium alloy. Transactions of FAMENA, 41(1), pp.81-90.
[16] Gogheri, M.S., Kasiri-Asgarani, M., Bakhsheshi-Rad, H.R., Ghayour, H. and Rafiei, M., 2020. Mechanical properties, corrosion behavior and biocompatibility of orthopedic pure titanium− magnesium alloy screw prepared by friction welding. Transactions of Nonferrous Metals Society of China, 30(11), pp.2952-2966.
[17] Gogheri, M.S., Kasiri-Asgarani, M., Bakhsheshi-Rad, H.R., Ghayour, H., Rafiei, M., Mostafa, A. and Berto, F., 2022. Friction welding of pure titanium-AZ31 magnesium alloy: Characterization and simulation. Engineering Failure Analysis, 131, p.105799.
[18] Babu, S.R., Kumar, V.S., Karunamoorthy, L. and Reddy, G.M., 2014. Investigation on the effect of friction stir processing on the superplastic forming of AZ31B alloy. Materials & Design, 53, pp.338-348.
[19] Kaibyshev, R., Sitdikov, O. and Olenyov, S., 2002. Ultrafine Grain Formation During Equal Channel Angular Extrusion in an Al‐Mg‐Sc Alloy. Ultrafine grained materials II, pp.65-74.
[20] Mirzadeh, H., 2021. High strain rate superplasticity via friction stir processing (FSP): A review. Materials Science and Engineering: A, 819, p.141499.
[21] Alizadeh, R., Mahmudi, R., Ngan, A.H.W., Huang, Y. and Langdon, T.G., 2016. Superplasticity of a nano-grained Mg–Gd–Y–Zr alloy processed by high-pressure torsion. Materials Science and Engineering: A, 651, pp.786-794.
[22] Kandalam, S., Sabat, R.K., Bibhanshu, N., Avadhani, G.S., Kumar, S. and Suwas, S., 2017. Superplasticity in high temperature magnesium alloy WE43. Materials Science and Engineering: A, 687, pp.85-92.
[23] Iwaszko, J. and Sajed, M., 2021. Technological aspects of producing surface composites by friction stir processing—A review. Journal of Composites Science, 5(12), p.323.
[24] Wu, B., Ibrahim, M.Z., Raja, S., Yusof, F., Muhamad, M.R.B., Huang, R., Zhang, Y., Badruddin, I.A., Hussien, M. and Kamangar, S., 2022. The influence of reinforcement particles friction stir processing on microstructure, mechanical properties, tribological and corrosion behaviors: a review. Journal of Materials Research and Technology, 20, pp.1940-1975.
[25] Saberi, A., Bakhsheshi-Rad, H.R., Karamian, E., Kasiri-Asgarani, M. and Ghomi, H., 2020. Magnesium-graphene nano-platelet composites: Corrosion behavior, mechanical and biological properties. Journal of Alloys and Compounds, 821, p.153379.
[26] Razzaghi, M., Kasiri-Asgarani, M., Bakhsheshi-Rad, H.R. and Ghayour, H., 2020. Microstructure, mechanical properties, and in-vitro biocompatibility of nano-NiTi reinforced Mg–3Zn-0.5 Ag alloy: Prepared by mechanical alloying for implant applications. Composites Part B: Engineering, 190, p.107947.
[27] Razzaghi, M., Kasiri-Asgarani, M., Bakhsheshi-Rad, H.R. and Ghayour, H., 2021. In vitro bioactivity and corrosion of PLGA/hardystonite composite-coated magnesium-based nanocomposite for implant applications. International Journal of Minerals, Metallurgy and Materials, 28(1), pp.168-178.
[28] Vatan, H.N., Kahrizsangi, R.E. and Asgarani, M.K., 2016. Growth, corrosion and wear resistance of SiC nanoparticles embedded MAO coatings on AZ31B magnesium alloy. Protection of Metals and Physical Chemistry of Surfaces, 52(5), pp.859-868.
[29] Qiao, K., Zhang, T., Wang, K., Yuan, S., Wang, L., Chen, S., Wang, Y., Xue, K. and Wang, W., 2022. Effect of multi-pass friction stir processing on the microstructure evolution and corrosion behavior of ZrO2/AZ31 magnesium matrix composite. Journal of Materials Research and Technology, 18, pp.1166-1179.
[30] Vaira Vignesh, R., Padmanaban, R., Govindaraju, M. and Suganya Priyadharshini, G., 2019. Investigations on the corrosion behaviour and biocompatibility of magnesium alloy surface composites AZ91D-ZrO2 fabricated by friction stir processing. Transactions of the IMF, 97(5), pp.261-270.
[31] Navazani, M. and Dehghani, K., 2016. Fabrication of Mg-ZrO2 surface layer composites by friction stir processing. Journal of Materials Processing Technology, 229, pp.439-449.
[32] Zang, Q., Li, X., Chen, H., Zhang, J., Wang, L., Chen, S., Jin, Y. and Lu, S., 2020. Microstructure and mechanical properties of AZ31/ZrO2 composites prepared by friction stir processing with high rotation speed. Frontiers in Materials, 7, p.278.
[33] Qiao, K., Zhang, T., Wang, K., Yuan, S., Zhang, S., Wang, L., Wang, Z., Peng, P., Cai, J., Liu, C. and Wang, W., 2021. Mg/ZrO2 metal matrix nanocomposites fabricated by friction stir processing: microstructure, mechanical properties, and corrosion behavior. Frontiers in Bioengineering and Biotechnology, 9, p.605171.
[34] Liu, S., Paidar, M., Ojo, O.O., Poková, M.Š., Mehrez, S., Zain, A.M., Zhao, Q. and Wang, J., 2023. Friction stir processing of hybridized AZ31B magnesium alloy-based composites by adding CeO2 and ZrO2powders: mechanical, wear, and corrosion behaviors. Journal of Materials Research and Technology, 24, pp.1949-1972.
[35] POSTOPKOM, V.T., 2019. Effect of zro2 additions on fabrication of zro2/mg composites via friction-stir processing. Mater Tehnologije, 53(2), pp.193-197.
[36] Mazaheri, Y., Jalilvand, M.M., Heidarpour, A. and Jahani, A.R., 2020. Tribological behavior of AZ31/ZrO2 surface nanocomposites developed by friction stir processing. Tribology International, 143, p.106062.
[37] Li, Y., Ojo, O.O., Salman, S., Paidar, M., Refaai, M.R.A., Zain, A.M., Nasution, M.K. and Xin, D., 2023. Fabrication of the novel hybridized AZ31B Mg/CeO2+ ZrO2 composites via multiple pass friction stir processing. Journal of Materials Research and Technology, 24, pp.9984-10004.
[38] Lu, D., Jiang, Y. and Zhou, R., 2013. Wear performance of nano-Al2O3 particles and CNTs reinforced magnesium matrix composites by friction stir processing. Wear, 305(1-2), pp.286-290.
[39] Ahmadkhaniha, D., Sohi, M.H., Salehi, A. and Tahavvori, R., 2016. Formations of AZ91/Al2O3 nano-composite layer by friction stir processing. Journal of Magnesium and Alloys, 4(4), pp.314-318.
[40] Asadi, P., Faraji, G., Masoumi, A. and Besharati Givi, M.K., 2011. Experimental investigation of magnesium-base nanocomposite produced by friction stir processing: effects of particle types and number of friction stir processing passes. Metallurgical and Materials Transactions A, 42, pp.2820-2832.
[41] Azizieh, M., Larki, A.N., Tahmasebi, M., Bavi, M., Alizadeh, E. and Kim, H.S., 2018. Wear behavior of AZ31/Al 2 O 3 magnesium matrix surface nanocomposite fabricated via friction stir processing. Journal of Materials Engineering and Performance, 27, pp.2010-2017
[42] Azizieh, M., Kokabi, A.H. and Abachi, P., 2011. Effect of rotational speed and probe profile on microstructure and hardness of AZ31/Al2O3 nanocomposites fabricated by friction stir processing. Materials & Design, 32(4), pp.2034-2041.
[43] Faraji, G., Dastani, O. and Mousavi, S.A.A.A., 2011. Effect of process parameters on microstructure and micro-hardness of AZ91/Al 2 O 3 surface composite produced by FSP. Journal of Materials Engineering and Performance, 20, pp.1583-1590.
[44] Sharifitabar, M., Kashefi, M. and Khorshahian, S., 2016. Effect of friction stir processing pass sequence on properties of Mg–ZrSiO4–Al2O3 surface hybrid micro/nano-composites. Materials & Design, 108, pp.1-7.
[45] Rezaeian-Delouei, M., Abdollah-Pour, H., Tajally, M. and Mousavizade, S.M., 2020. An investigation of microstructure, wear and corrosion resistance of AZ31B–SiO2–graphite hybrid surface composite produced by friction stir processing. Materials Research Express, 6(12), p.1250a7.
[46] Lee, C.J., Huang, J.C. and Hsieh, P.J., 2006. Mg based nano-composites fabricated by friction stir processing. Scripta Materialia, 54(7), pp.1415-1420.
[47] Chang, C.I., Wang, Y.N., Pei, H.R., Lee, C.J., Du, X.H. and Huang, J.C., 2007. Microstructure and mechanical properties of nano-ZrO2 and nano-SiO2 particulate reinforced AZ31-Mg based composites fabricated by friction stir processing. Key Engineering Materials, 351, pp.114-119.
[48] CI, C., YN, W., HR, P. and JC, H., 2006. On the hardening of friction stir processed Mg-AZ31 based composites with 5–20% nano-ZrO2 and nano-SiO2 particles. Materials transactions, 47(12), pp.2942-2949.
[49] Khayyamin, D., Mostafapour, A. and Keshmiri, R., 2013. The effect of process parameters on microstructural characteristics of AZ91/SiO2 composite fabricated by FSP. Materials Science and Engineering: A, 559, pp.217-221.
[50] Iwaszko, J., Kudła, K. and Fila, K., 2016. Friction stir processing of the AZ91 magnesium alloy with SiC particles. Archives of Materials Science and Engineering, 77(2), pp.85-92.
[51] Rajmohan, T., Prasad, K.G., Jeyavignesh, S., Kamesh, K., Karthick, S. and Duraimurugan, S., 2018, July. Studies on friction stir processing parameters on microstructure and micro hardness of Silicon carbide (SiC) particulate reinforced Magnesium (Mg) surface composites. In IOP Conference Series: Materials Science and Engineering (Vol. 390, No. 1, p. 012013). IOP Publishing.
[52] Ram, B., Deepak, D. and Bala, N., 2019. Microstructural refinement and enhancement in mechanical properties of magnesium/SiC as-cast composites via friction stir processing route. Transactions of the Indian Institute of Metals, 72, pp.1313-1321.
[53] Peng, J., Zhang, Z., Guo, P., Huang, J.A., Zhou, W. and Wu, Y., 2020. Microstructure and tensile properties of SiC particles reinforced AZ31 magnesium alloys prepared by multi-pass friction stir processing. Transactions of the Indian Institute of Metals, 73(4), pp.1093-1099.
[54] Naser, A.Z. and Darras, B.M., 2017. Experimental investigation of Mg/SiC composite fabrication via friction stir processing. The International Journal of Advanced Manufacturing Technology, 91, pp.781-790.
[55] Ram, B., Deepak, D. and Bala, N., 2018. Role of friction stir processing in improving wear behavior of Mg/SiC composites produced by stir casting route. Materials Research Express, 6(2), p.026577.
[56] Deepan, M., Pandey, C., Saini, N., Mahapatra, M.M. and Mulik, R.S., 2017. Estimation of strength and wear properties of Mg/SiC nanocomposite fabricated through FSP route. Journal of the Brazilian Society of Mechanical Sciences and Engineering, 39, pp.4613-4622.
[57] Morisada, Y., Fujii, H., Nagaoka, T. and Fukusumi, M., 2006. Effect of friction stir processing with SiC particles on microstructure and hardness of AZ31. Materials Science and Engineering: A, 433(1-2), pp.50-54.
[58] Bagheri, B. and Abbasi, M., 2020. Development of AZ91/SiC surface composite by FSP: effect of vibration and process parameters on microstructure and mechanical characteristics. Advances in Manufacturing, 8(1), pp.82-96.
[59] Asadi, P., Givi, M.B., Abrinia, K., Taherishargh, M. and Salekrostam, R., 2011. Effects of SiC particle size and process parameters on the microstructure and hardness of AZ91/SiC composite layer fabricated by FSP. Journal of materials engineering and performance, 20, pp.1554-1562.
[60] Bagheri, B., Abbasi, M., Abdollahzadeh, A. and Mirsalehi, S.E., 2020. Effect of second-phase particle size and presence of vibration on AZ91/SiC surface composite layer produced by FSP. Transactions of Nonferrous Metals Society of China, 30(4), pp.905-916.
[61] Singh, B., Singh, J. and Joshi, R.S., 2022. Effect of tic reinforcement on wear resistance of magnesium matrix composite by Fsp. Archives of Metallurgy and Materials, pp.293-302.
[62] Navazani, M. and Dehghani, K., 2015. Investigation of microstructure and hardness of Mg/TiC surface composite fabricated by friction stir processing (FSP). Procedia Materials Science, 11, pp.509-514.
[63] Balakrishnan, M., Dinaharan, I., Palanivel, R. and Sivaprakasam, R., 2015. Synthesize of AZ31/TiC magnesium matrix composites using friction stir processing. Journal of Magnesium and Alloys, 3(1), pp.76-78.
[64] Sagar, P. and Handa, A., 2020. Role of tool rotational speed on the tribological characteristics of magnesium based AZ61A/TiC composite developed via friction stir processing route. Journal of Achievements in Materials and Manufacturing Engineering, 101(2), pp.60-75.
[65] Sagar, P. and Handa, A., 2021. Selection of tool transverse speed considering trial run experimentations for AZ61/Tic composite developed via friction stir processing using triangular tool. Materials Today: Proceedings, 38, pp.198-203.
[66] Patle, H., Sunil, B.R. and Dumpala, R., 2020. Sliding wear behavior of AZ91/B4C surface composites produced by friction stir processing. Materials Research Express, 7(1), p.016586.
[67] Singh, N., Singh, J., Singh, B. and Singh, N., 2018. Wear behavior of B4C reinforced AZ91 matrix composite fabricated by FSP. Materials Today: Proceedings, 5(9), pp.19976-19984.
[68] Kim, H.Y., Byeon, J.W., Lee, S.M., Kim, J.Y., Hwang, J.W. and Jung, W.S., 2017. Fabrication of AZ31/CNT surface nano-composite by double-pass friction stir processing. Archives of Metallurgy and Materials.
[69] bin Ariffin, M.A., bin Muhamad, M.R., Raja, S., Jamaludin, M.F., Yusof, F., Suga, T., Liu, H., Morisada, Y. and Fujii, H., 2022. Friction stir alloying of AZ61 and mild steel with Cu-CNT additive. Journal of Materials Research and Technology, 21, pp.2400-2415.
[70] Huang, Y., Li, J., Wan, L., Meng, X. and Xie, Y., 2018. Strengthening and toughening mechanisms of CNTs/Mg-6Zn composites via friction stir processing. Materials Science and Engineering: A, 732, pp.205-211.
[71]Liang, J., Li, H., Qi, L., Tian, W., Li, X., Chao, X. and Wei, J., 2017. Fabrication and mechanical properties of CNTs/Mg composites prepared by combining friction stir processing and ultrasonic assisted extrusion. Journal of Alloys and Compounds, 728, pp.282-288.
[72] Alavi Nia, A. and Nourbakhsh, S.H., 2016. Microstructure and mechanical properties of AZ31/SiC and AZ31/CNT composites produced by friction stir processing. Transactions of the Indian Institute of Metals, 69(7), pp.1435-1442.
[73] Sharma, S., Handa, A., Singh, S.S. and Verma, D., 2019. Influence of tool rotation speeds on mechanical and morphological properties of friction stir processed nano hybrid composite of MWCNT-Graphene-AZ31 magnesium. Journal of Magnesium and Alloys, 7(3), pp.487-500.
[74] Sharma, S., Handa, A., Singh, S.S. and Verma, D., 2019. Synthesis of a novel hybrid nanocomposite of AZ31Mg-Graphene-MWCNT by multi-pass friction stir processing and evaluation of mechanical properties. Materials Research Express, 6(12), p.126531.
[75] Zhang, M., Yang, K., Wei, G., Xie, W., Yang, Y., Li, B., Chen, H. and Yang, Q., 2023. AZ31/GNP magnesium composites with excellent comprehensive mechanical properties prepared by friction stir processing and rolling. Journal of Materials Research and Technology, 25, pp.3078-3092.
[76] Afrinaldi, A., Kakiuchi, T., Nakagawa, S., Moritomi, H., Kumabe, K., Nakai, A., Ohtani, A., Mizutani, Y. and Uematsu, Y., 2018. Fabrication of recycled carbon fiber reinforced magnesium alloy composite by friction stir processing using 3-flat pin tool and its fatigue properties. Materials Transactions, 59(3), pp.475-481.
[77] Li, H., Paidar, M., Ojo, O.O., Vignesh, R.V., Iswandi, I., Mehrez, S., Zain, A.M. and Mohanavel, V., 2023. Effect of tool profile on wear and mechanical behaviors of CeO2 and ZrO2-reinforced hybrid magnesium matrix composite developed via FSP technique. Journal of Manufacturing Processes, 94, pp.297-315.
[78] Zhang, M., Paidar, M., Šlapáková, M., Abdullaev, S., Refaai, M.R.A., Zain, A.M. and Vignesh, R.V., 2023. Achieving high mechanical and wear properties in the AZ31/(CeO2+ ZrO2) p surface composite using friction stir processing: Application of vibration. Vacuum, 218, p.112654.
[79] Ma, W., Ojo, O.O., Paidar, M., Mehrez, S., Zain, A.M., Kulandaivel, A., Mohanavel, V. and Kannan, S., 2023. Improving the wear resistance and mechanical properties of hybridized AZ80 Mg/CeO2+ ZrO2 surface composite by friction stir processing: effect of pin geometry. Vacuum, 212, p.111980.
[80] Faraji, G., Dastani, O. and Mousavi, S.A., 2011. Microstructures and mechanical properties of Al2O3/AZ91 surface nanocomposite layer produced by friction stir processing. Proceedings of the Institution of Mechanical Engineers, Part B: Journal of Engineering Manufacture, 225(8), pp.1331-1345.
[81] Azizieh, M., Kim, H.S., Kokabi, A.H., Abachi, P. and Shahraki, B.K., 2011. Fabrication of AZ31/Al2O3 nanocomposites by friction stir processing. Reviews on Advanced Materials Science, 28(1), pp.85-89.
[82] Dadaei, M., Omidvar, H., Bagheri, B., Jahazi, M. and Abbasi, M., 2014. The effect of SiC/Al2O3 particles used during FSP on mechanical properties of AZ91 magnesium alloy. International Journal of Materials Research, 105(4), pp.369-374.
[83] Awasthi, S., Gupta, P., Pachuri, P. and Tyagi, M., 2022. Optimization of magnesium ZK60A/SiC/B4C hybrid composite fabricated by friction stir processing. Materials Today: Proceedings, 62, pp.191-197.
[84] Erfan, Y. and Kashani-Bozorg, S.F., 2011. Fabrication of mg/sic nanocomposite surface layer using friction stir processing technique. International Journal of Nanoscience, 10(04n05), pp.1073-1076.
[85] Jabbari, A.H., Sedighi, M., Vallant, R., Huetter, A. and Sommitsch, C., 2015. Effect of pass number, rotational and traverse speed on particle distribution and microstructure of AZ31/SiC composite produced by friction stir processing. Key Engineering Materials, 651, pp.765-770.
[86] Bagheri, B., Abdollahzadeh, A., Sharifi, F. and Abbasi, M., 2022. The role of vibration and pass number on microstructure and mechanical properties of AZ91/SiC composite layer during friction stir processing. Proceedings of the Institution of Mechanical Engineers, Part C: Journal of Mechanical Engineering Science, 236(5), pp.2312-2326.
[87] Marode, R.V., Pedapati, S.R., Lemma, T.A., Loyte, A., Devarajan, Y. and Thandavamoorthy, R., 2023. Influence of silicon carbide on microhardness and corrosion behavior of AZ91/SiC surface composites processed through friction stir processing: Multi-response optimization using taguchi-grey relational analysis. Silicon, 15(16), pp.6921-6943.
[88] Abdollahzadeh, A., Bagheri, B., Abbasi, M., Sharifi, F. and Moghaddam, A.O., 2021. Mechanical, wear and corrosion behaviors of AZ91/SiC composite layer fabricated by friction stir vibration processing. Surface Topography: Metrology and Properties, 9(3), p.035038.
[89] Sagar, P., 2024. Synthesis and characterization of magnesium-titanium carbide nanocomposites via friction stir processing: An in-depth parameter investigation. Proceedings of the Institution of Mechanical Engineers, Part C: Journal of Mechanical Engineering Science, p.09544062241234552.
[90] Vanam, J.P., Manjunadh, V., Kumar, A.S., Kumar, T.M. and Kishorebabu, N., 2023. Microstructure and mechanical properties of magnesium alloy reinforced with TiB2 and B4C processed through friction stir processing. Materials Today: Proceedings.
[91] Alam, N., Iqbal, M.M., Prakash, C., Singh, S. and Basak, A., 2020. Influence of the microstructural and mechanical properties of reinforced graphene in magnesium matrix fabricated by friction stir processing. In Advances in Materials Science and Engineering: Select Proceedings of ICFMMP 2019 (pp. 235-247). Springer Singapore.
[92] Marode, R.V., Awang, M., Lemma, T.A., Pedapati, S.R., Hassan, A., Janga, V.S.R., Alam, M.A., Loyte, A. and Devarajan, Y., 2024. Friction stir processing of AZ91 hybrid composites with exfoliated multi-layered graphene: A Taguchi-Grey relational analysis. Journal of Alloys and Compounds, 972, p.172703.