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1 - Synthesis and characterization of the novel 80S bioactive glass: bioactivity, ‎biocompatibility, cytotoxicity https://jourcc.com/index.php/jourcc/article/view/jcc231 10.29252/jcc.2.3.1 1 In this research, the 80S bioactive glass with different Ca/P ratios was prepared by the sol-gel route. Scanning electron microscopy (SEM), transmission electron microscopy (TEM), energy dispersive spectroscopy (EDS), X-ray diffraction (XRD), and Fourier transforms infrared spectroscopy (FTIR) were used to study the apatite structure and shape. According to the results, the 78SiO2–17P2O5–5CaO bioglass showed a higher rate of crystalline hydroxyapatite (HA) on its surface in comparison with the other bioglasses. After 3 days of immersion in the SBF solution, spherical apatite was formed on the 78SiO2–17P2O5–5CaO surface, which demonstrated high bioactivity. A statistically significant promotion in proliferation and differentiation of G292 osteoblastic cells was also observed. Regarding its optimal cell viability and bioactivity, the 78SiO2–17P2O5–5CaO bioactive glass could be offered as a promising candidate for bone tissue applications. 0 - 110 114 - - Ameneh Bakhtiari Department of Biology, Shahid Chamran University Iran info@jourcc.com - - Amir Cheshmi Department of Materials Engineering, Babol Noshirvani University of Technology Iran info@jourcc.com - - Maryam Naeimi School of Nursing and Midwifery, Tehran University of Medical Science Iran info@jourcc.com - - Sobhan Mohammadi Fathabad Department of Engineering and High-Tech, Iran University of Industries and Mines Iran info@jourcc.com - - Maryam Aliasghari Young Researchers and Elite Club, Yadegar-e-Imam Khomeini (RAH) Shahr-e-Rey Branch, Islamic Azad University Iran info@jourcc.com - - Amir Modarresi Chahardehi Advanced Medical and Dental Institute, Universiti Sains Malaysia Malaysia amirmch@gmail.com - - Sahar Hassani Department of Cellular and Molecular Biology, Tehran Medical Sciences, Islamic Azad University Iran info@jourcc.com - - Vahideh Elhami Sustainable Process Technology Group, University of Twente Netherlands info@jourcc.com Bioactive glass 80S Ca/P ratio Hydroxyapatite [1] L. Bazli, H. Nargesi khoramabadi, A. Modarresi Chahardehi, H. Arsad, B. Malekpouri, M. Asgari Jazi, N. Azizabadi, Factors influencing the failure of dental implants: A Systematic Review, Composites and Compounds 2(1) (2020). ## [2] A. Esmaeilkhanian, F. Sharifianjazi, A. Abouchenari, A. Rouhani, N. Parvin, M. Irani, Synthesis and characterization of natural nano-hydroxyapatite derived from turkey femur-bone waste, Applied biochemistry and biotechnology 189(3) (2019) 919-932. ## [3] A. Chlanda, P. Oberbek, M. Heljak, E. Kijeńska-Gawrońska, T. Bolek, M. Gloc, Ł. John, M. Janeta, M.J. Woźniak, Fabrication, multi-scale characterization and in-vitro evaluation of porous hybrid bioactive glass polymer-coated scaffolds for bone tissue engineering, Materials Science and Engineering: C 94 (2019) 516-523. ## [4] E. Sharifi Sedeh, S. Mirdamadi, F. Sharifianjazi, M. Tahriri, Synthesis and evaluation of mechanical and biological properties of scaffold prepared from Ti and Mg with different volume percent, Synthesis and Reactivity in Inorganic, Metal-Organic, and Nano-Metal Chemistry 45(7) (2015) 1087-1091. ## [5] S. Rahimi, F. SharifianJazi, A. Esmaeilkhanian, M. Moradi, A.H.S. Samghabadi, Effect of SiO2 content on Y-TZP/Al2O3 ceramic-nanocomposite properties as potential dental applications, Ceramics International (2020). ## [6] S. Nasibi, K. Alimohammadi, L. Bazli, S. Eskandarinezhad, A. Mohammadi, N. Sheysi, TZNT alloy for surgical implant applications: A Systematic Review, Journal of Composites and Compounds 2(3) (2020) 61-67. ## [7] L. Bazli, B. Eftekhari Yekta, A. Khavandi, Preparation and Characterization of Sn-Containing Glasses for Brachytherapy Applications, Transactions of the Indian Ceramic Society 76(4) (2017) 242-246. ## [8] F. Sharifianjazi, A.H. Pakseresht, M.S. Asl, A. Esmaeilkhanian, H.W. Jang, M. Shokouhimehr, Hydroxyapatite consolidated by zirconia: applications for dental implant, Journal of Composites and Compounds 2(1) (2020) 26-34. ## [9] Z. Goudarzi, A. Ijadi, A. Bakhriari, S. Eskandarinezhad, N. Azizabadi, M.A. Jazi, Sr-doped bioactive glasses for biological applications, Journal of Composites and Compounds 2(3) (2020) 105-109. ## [10] J. Daraei, Production and characterization of PCL (Polycaprolactone) coated TCP/nanoBG composite scaffolds by sponge foam method for orthopedic applications, Journal of Composites and Compounds 2(1) (2020) 45-50. ## [11] Z. Goudarzi, N. Parvin, F. Sharifianjazi, Formation of hydroxyapatite on surface of SiO2– P2O5–CaO–SrO–ZnO bioactive glass synthesized through sol-gel route, Ceramics International 45(15) (2019) 19323-19330. ## [12] F. Sharifianjazi, N. Parvin, M. Tahriri, Formation of apatite nano-needles on novel gel derived SiO2-P2O5-CaO-SrO-Ag2O bioactive glasses, Ceramics International 43(17) (2017) 15214-15220. ## [13] K. Zhang, Q. Van Le, Bioactive glass coated zirconia for dental implants: a review, Journal of Composites and Compounds 2(1) (2020) 10-17. ## [14] F. Sharifianjazi, N. Parvin, M. Tahriri, Synthesis and characteristics of sol-gel bioactive SiO2-P2O5-CaO-Ag2O glasses, Journal of Non-Crystalline Solids 476 (2017) 108-113. ## [15] M.S.N. Shahrbabak, F. Sharifianjazi, D. Rahban, A. Salimi, A comparative investigation on bioactivity and antibacterial properties of sol-gel derived 58S bioactive glass substituted by Ag and Zn, Silicon 11(6) (2019) 2741-2751. ## [16] F. Sharifianjazi, M. Moradi, A. Abouchenari, A.H. Pakseresht, A. Esmaeilkhanian, M. Shokouhimehr, M.S. Asl, Effects of Sr and Mg dopants on biological and mechanical properties of SiO2–CaO–P2O5 bioactive glass, Ceramics International (2020). ## [17] F. Sharifianjazi, A.H. Pakseresht, M. Shahedi Asl, A. Esmaeilkhanian, H. Nargesi khoramabadi, H.W. Jang, M. Shokouhimehr, Hydroxyapatite Consolidated by Zirconia: Applications for Dental Implant, Composites and Compounds 2(1) (2020). ## [18] A. Moghanian, A. Ghorbanoghli, M. Kazem‐Rostami, A. Pazhouheshgar, E. Salari, M. Saghafi Yazdi, T. Alimardani, H. Jahani, F. Sharifian Jazi, M. Tahriri, Novel antibacterial Cu/Mg‐substituted 58S‐bioglass: Synthesis, characterization and investigation of in vitro bioactivity, International Journal of Applied Glass Science (2019) 1-14. ## [19] L. Bazli, M. Siavashi, A. Shiravi, A Review of Carbon nanotube/TiO2 Composite prepared via Sol-Gel method, Journal of Composites and Compounds 1(1) (2019) 1-12. ## [20] W.-T. Lin, J.-C. Chen, Y.-C. Hsiao, C.-J. Shih, Re-crystallization of silica-based calcium phosphate glass prepared by sol–gel technique, Ceramics International 43(16) (2017) 13388-13393. ## [21] J.R. Jones, Reprint of: Review of bioactive glass: From Hench to hybrids, Acta Biomaterialia 23 (2015) S53-S82. ## [22] J. Pawlik, M. Widziołek, K. Cholewa-Kowalska, M. Łączka, A.M. Osyczka, New sol-gel bioactive glass and titania composites with enhanced physico-chemical and biological properties, Journal of Biomedical Materials Research Part A 102(7) (2014) 2383-2394. ## [23] J.P. Fan, P. Kalia, L. Di Silvio, J. Huang, In vitro response of human osteoblasts to multi-step sol–gel derived bioactive glass nanoparticles for bone tissue engineering, Materials Science and Engineering: C 36 (2014) 206-214. ## [24] R.C. Bielby, I.S. Christodoulou, R.S. Pryce, W.J.P. Radford, L.L. Hench, J.M. Polak, Time- and Concentration-Dependent Effects of Dissolution Products of 58S Sol–Gel Bioactive Glass on Proliferation and Differentiation of Murine and Human Osteoblasts, Tissue Engineering 10(7-8) (2004) 1018-1026. ## [25] C. Mao, X. Chen, G. Miao, C. Lin, Angiogenesis stimulated by novel nanoscale bioactive glasses, Biomedical materials 10(2) (2015) 025005.##

1 - Investigation of aluminum oxide coatings created by electrolytic plasma method in different potential regimes https://jourcc.com/index.php/jourcc/article/view/jcc232 10.29252/jcc.2.3.2 1 One of the most important coating methods on aluminum surfaces is the electrolytic plasma method. The main objective of the present study is to investigate the potential of aluminum oxide coatings created by electrolytic plasma method. Aluminum series 2 and the electrolyte of sodium silicate, sodium tetraphosphate, sodium aluminate, and potassium hydroxide were used. The results showed that the appropriate voltage to achieve uniform coating with ideal thickness and morphology is 500 V. Adding sodium silicate to the electrolyte solution will create porosity and non-adhesion to the substrate. On the other hand, the use of tetra sodium pyrophosphate increases the adhesion of the coating by penetrating phosphorus into the metal/coating interface. The optimum solution for plasma electrolytic oxidation coatings composed of 10, 3, and 3 g/l of tetra sodium pyrophosphate, sodium aluminate, and KOH, respectively. DC pulsed coating was shown to control the coating process and coating uniformity. In addition, the appropriate frequency to apply coating was DC pulse potential at 1000 Hz frequency under the 30% duty cycle. 0 - 115 122 - - Mahsa Amiri Material and Metallurgical Engineering Department, Amirkabir University of Technology Iran info@jourcc.com - - Saman Padervand Material and Metallurgical Engineering Department, Amirkabir University of Technology Iran info@jourcc.com - - Vahid Tavakoli Targhi Material and Metallurgical Engineering Department, Amirkabir University of Technology Iran info@jourcc.com - - Seyed Mohammad Mousavi khoei Material and Metallurgical Engineering Department, Amirkabir University of Technology Iran Mmousavi@aut.ac.ir Electrolyte plasma method Aluminum oxide coatings Potential applied regime [1] V.A. Andrei, C. Radulescu, V. Malinovschi, A. Marin, E. Coaca, M. Mihalache, C.N. Mihailescu, I.D. Dulama, S. Teodorescu, I.A. Bucurica, Aluminum Oxide Ceramic Coatings on 316l Austenitic Steel Obtained by Plasma Electrolysis Oxidation Using a Pulsed Unipolar Power Supply, Coatings 10(4) (2020) 318. ## [2] T. Iman, G. Ehsan, Production methods of CNT-reinforced Al matrix composites: a review, Journal of Composites and Compounds 2(2) (2020). ## [3] Z. Kaiqiang, J. Ho Won, L. Quyet Van, Production methods of ceramic-reinforced Al-Li matrix composites: A review, Journal of Composites and Compounds 2(3) (2020). ## [4] E.H. Jazi, R. Esalmi-Farsani, G. Borhani, F.S. Jazi, Synthesis and Characterization of In Situ Al-Al13Fe4-Al2O3-TiB2 Nanocomposite Powder by Mechanical Alloying and Subsequent Heat Treatment, Synthesis and Reactivity in Inorganic, Metal-Organic, and Nano-Metal Chemistry 44(2) (2014) 177-184. ## [5] K. Zhang, H.W. Jang, Q. Van Le, Production methods of ceramic-reinforced Al-Li matrix composites: A review, Journal of Composites and Compounds 2(3) (2020) 77-84. ## [6] M. Fattahi, K. Vaferi, M. Vajdi, F. Sadegh Moghanlou, A. Sabahi Namini, M. Shahedi Asl, Aluminum nitride as an alternative ceramic for fabrication of microchannel heat exchangers: A numerical study, Ceramics International 46(8, Part B) (2020) 11647-11657. ## [7] B. Nayebi, A. Bahmani, M.S. Asl, A. Rasooli, M.G. Kakroudi, M. Shokouhimehr, Characteristics of dynamically formed oxide films in aluminum–calcium foamable alloys, Journal of Alloys and Compounds 655 (2016) 433-441. ## [8] A. Chlanda, P. Oberbek, M. Heljak, E. Kijeńska-Gawrońska, T. Bolek, M. Gloc, Ł. John, M. Janeta, M.J. Woźniak, Fabrication, multi-scale characterization and in-vitro evaluation of porous hybrid bioactive glass polymer-coated scaffolds for bone tissue engineering, Materials Science and Engineering: C 94 (2019) 516-523. ## [9] M. Shahedi Asl, B. Nayebi, M. Shokouhimehr, TEM characterization of spark plasma sintered ZrB2–SiC–graphene nanocomposite, Ceramics International 44(13) (2018) 15269-15273. ## [10] S.A. Delbari, B. Nayebi, E. Ghasali, M. Shokouhimehr, M. Shahedi Asl, Spark plasma sintering of TiN ceramics codoped with SiC and CNT, Ceramics International 45(3) (2019) 3207-3216. ## [11] B. Mohammadpour, Z. Ahmadi, M. Shokouhimehr, M. Shahedi Asl, Spark plasma sintering of Al-doped ZrB2–SiC composite, Ceramics International 45(4) (2019) 4262-4267. ## [12] V. Egorkin, S. Gnedenkov, S. Sinebryukhov, I. Vyaliy, A. Gnedenkov, R. Chizhikov, Increasing thickness and protective properties of PEO-coatings on aluminum alloy, Surface and coatings Technology 334 (2018) 29-42. ## [13] B. Kasalica, M. Petković-Benazzouz, M. Sarvan, I. Belča, B. Maksimović, B. Misailović, Z. Popović, Mechanisms of plasma electrolytic oxidation of aluminum at the multi-hour timescales, Surface and Coatings Technology 390 (2020) 125681. ## [14] T. Kikuchi, T. Taniguchi, R.O. Suzuki, S. Natsui, Fabrication of a plasma electrolytic oxidation/anodic aluminum oxide multi-layer film via one-step anodizing aluminum in ammonium carbonate, Thin Solid Films 697 (2020) 137799. ## [15] S. Wang, X. Liu, X. Yin, N. Du, Influence of electrolyte components on the microstructure and growth mechanism of plasma electrolytic oxidation coatings on 1060 aluminum alloy, Surface and Coatings Technology 381 (2020) 125214. ## [16] N. Angulakshmi, R.B. Dhanalakshmi, M. Kathiresan, Y. Zhou, A.M. Stephan, The suppression of lithium dendrites by a triazine-based porous organic polymer-laden PEO-based electrolyte and its application for all-solid-state lithium batteries, Materials Chemistry Frontiers 4(3) (2020) 933-940. ## [17] R. Hussein, D. Northwood, X. Nie, The effect of processing parameters and substrate composition on the corrosion resistance of plasma electrolytic oxidation (PEO) coated magnesium alloys, Surface and Coatings Technology 237 (2013) 357-368. ## [18] B. Ghorbanian, S.M.M. Khoie, Formation of vanadium carbide with the plasma electrolytic saturation method (PES) and comparison with Thermo Reactive diffusion method (TRD), Acta Metallurgica Slovaca 22(2) (2016) 111-119. ## [19] A. Yerokhin, X. Nie, A. Leyland, A. Matthews, S. Dowey, Plasma electrolysis for surface engineering, Surface and coatings technology 122(2-3) (1999) 73-93. ## [20] B. Ghorbanian, S.M.M. Khoie, M. Rasouli, R.J. Doodran, Investigation of the electrolyte effects on formation of vanadium carbide via plasma electrolytic saturation method (pes), Surface Review and Letters 23(04) (2016) 1650021. ## [21] Y. Gao, B. Ghorbanian, H.N. Gargari, W. Gao, Catalytic activity of char produced from brown coal for steam-gasification of bitumen oil, Petroleum Science and Technology 36(1) (2018) 75-78. ## [22] Y. Gao, B. Ghorbanian, H.N. Gargari, W. Gao, Steam gasification of bitumen oil in presence of Ni/dolomite catalysts, Petroleum Science and Technology 35(21) (2017) 2074-2079. ## [23] F. Momeni, B. Ghorbanian, S.M.M. Khoie, S.M.M. Nazari, M. Rasouli, Study of Current and Voltage Diagram In The Formed Vanadium Carbide Coatings Via Plasma Electrolytic Saturation Method, JOURNAL OF MATERIALS 7(11) (2016) 4073-4078. ## [24] V. Dehnavi, B.L. Luan, D.W. Shoesmith, X.Y. Liu, S. Rohani, Effect of duty cycle and applied current frequency on plasma electrolytic oxidation (PEO) coating growth behavior, Surface and Coatings Technology 226 (2013) 100-107. ## [25] S. Rahimi, F. SharifianJazi, A. Esmaeilkhanian, M. Moradi, A.H. Safi Samghabadi, Effect of SiO2 content on Y-TZP/Al2O3 ceramic-nanocomposite properties as potential dental applications, Ceramics International 46(8, Part A) (2020) 10910-10916. ## [26] M. Alizadeh, M.H. Paydar, F. Sharifian Jazi, Structural evaluation and mechanical properties of nanostructured Al/B4C composite fabricated by ARB process, Composites Part B: Engineering 44(1) (2013) 339-343. ## [27] J. Curran, T. Clyne, Thermo-physical properties of plasma electrolytic oxide coatings on aluminium, Surface and Coatings Technology 199(2-3) (2005) 168-176. ## [28] Y.-J. Oh, J.-I. Mun, J.-H. Kim, Effects of alloying elements on microstructure and protective properties of Al2O3 coatings formed on aluminum alloy substrates by plasma electrolysis, Surface and Coatings Technology 204(1-2) (2009) 141-148.##

1 - Ni-Cu matrix composite reinforced with CNTs: preparation, characterization, wear and corrosion behavior, inhibitory effects https://www.jourcc.com/index.php/jourcc/article/view/jcc233 10.29252/jcc.2.3.3 1 ‎St37 steel has been used in various industries due to its abundance and low cost. However the high corrosion rate of the steel in acidic environments is one of the limiting factors for its application. In this study, Ni-Cu composite coating reinforced with CNTs was applied on st37 steel substrate. The extract of Sarang Semut plant was entered to the coating as inhibitory particles and the electrochemical behavior of the coating was investigated. Hardness, pin-on-disk, and dynamic potential polarization tests were performed. Results showed that the presence of CNT particles improves the hardness, tribological behavior, and electrochemical behavior of the coating. Also, the presence of Sarang Semut particles acted as a barrier and protected the surface of st37 steel from corrosion. It should be noted that these particles affected the kinetics and thermodynamics of corrosion reactions and were not involved in the corrosion reactions. 0 - 123 128 - - Morteza Ferdosi Heragh Faculty of Materials and Metallurgical Engineering, Semnan University Iran info@jourcc.com - - Sara Eskandarinezhad Department of Mining and Metallurgical Engineering, Yazd University Iran s.eskandari.nezhad@gmail.com - - Alireza Dehghan Department of Research and Development, Applied research center of the geological survey of Iran Iran info@jourcc.com St37 Corrosion resistance CNTs Ni-Cu composite coating [1] N.D. Hassiotis, G.P. Petropoulos, Influence of surface roughness on corrosion resistance of turned carbon steel parts, International Journal of Machining and Machinability of Materials 1(2) (2006) 202-212. ## [2] I. Tajzad, E. Ghasali, Production methods of CNT-reinforced Al matrix composites: a review, Journal of Composites and Compounds 2(1) (2020) 1-9. ## [3] S.-W. Kim, B.-G. Jeon, D.-G. Hahm, M.-K. Kim, Ratcheting fatigue failure of a carbon steel pipe tee in a nuclear power plant using the deformation angle, Engineering Failure Analysis (2020) 104595. ## [4] P. Jordan, C. Maharaj, Asset management strategy for HAZ cracking caused by sigma-phase and creep embrittlement in 304H stainless steel piping, Engineering Failure Analysis 110 (2020) 104452. ## [5] M. Ferdosi Heragh, H. Tavakoli, Electrochemical Properties of a New Green Corrosion Inhibitor Derived from Prosopis farcta for St37 Steel in 1 M Hydrochloric Acid, Metals and Materials International (2019). ## [6] A.H. Shahbaz, M. Esmaeilian, R. NasrAzadani, K. Gavanji, The effect of MgF2 addition on the mechanical properties of hydroxyapatite synthesized via powder metallurgy, Journal of Composites and Compounds 1(1) (2019) 18-24. ## [7] S.E. Sanni, A.P. Ewetade, M.E. Emetere, O. Agboola, E. Okoro, S.J. Olorunshola, T.S. Olugbenga, Enhancing the inhibition potential of sodium tungstate towards mitigating the corrosive effect of Acidithiobaccillus thiooxidan on X-52 carbon steel, Materials Today Communications 19 (2019) 238-251. ## [8] A. Pruna, Advances in carbon nanotube technology for corrosion applications, Handbook of Polymer Nanocomposites. Processing, Performance and Application, Springer2015, pp. 335-359. ## [9] R.S. Erami, M. Amirnasr, S. Meghdadi, M. Talebian, H. Farrokhpour, K. Raeissi, Carboxamide derivatives as new corrosion inhibitors for mild steel protection in hydrochloric acid solution, Corrosion Science 151 (2019) 190-197. ## [10] M. Adabi, A.A. Amadeh, Electrodeposition mechanism of Ni–Al composite coating, Transactions of Nonferrous Metals Society of China 24(10) (2014) 3189-3195. ## [11] Z.M. Al-Rashidy, M. Farag, N.A. Ghany, A. Ibrahim, W.I. Abdel-Fattah, Orthopaedic bioactive glass/chitosan composites coated 316L stainless steel by green electrophoretic co-deposition, Surface and Coatings Technology 334 (2018) 479-490. ## [12] T. Abedi, S.K. Asl, Synthesis of a novel functionally graded coatings of Ni-Cr/Al2O3 nanocomposite coating by pulse electrodeposition, Materials Research Express 6(5) (2019). ## [13] D. Zhang, H. Zhang, S. Zhao, Z. Li, S. Hou, Electrochemical impedance spectroscopy evaluation of corrosion protection of X65 carbon steel by halloysite nanotube-filled epoxy composite coatings in 3.5% NaCl solution, Int. J. Electrochem. Sci 14 (2019) 4659-4667. ## [14] X. He, R. Song, D. Kong, Microstructure and corrosion behaviour of laser-cladding Al-Ni-TiC-CeO2 composite coatings on S355 offshore steel, Journal of Alloys and Compounds 770 (2019) 771-783. ## [15] M.A.U. Rehman, M.A. Munawar, D.W. Schubert, A.R. Boccaccini, Electrophoretic deposition of chitosan/gelatin/bioactive glass composite coatings on 316L stainless steel: A design of experiment study, Surface and Coatings Technology 358 (2019) 976-986. ## [16] Z. Abdel Hamid, A.Y. El-Etre, M. Fareed, Performance of Ni–Cu–ZrO2 nanocomposite coatings fabricated by electrodeposition technique, Anti-Corrosion Methods and Materials 64(3) (2017) 315-325. ## [17] M. Alizadeh, H. Safaei, Characterization of Ni-Cu matrix, Al2O3 reinforced nano-composite coatings prepared by electrodeposition, Applied Surface Science 456 (2018) 195-203. ## [18] Z. Hu, X. Jie, G. Lu, Corrosion resistance of Pb–Sn composite coatings reinforced by carbon nanotubes, Journal of coatings technology and research 7(6) (2010) 809-814. ## [19] Y. Orooji, A.a. Alizadeh, E. Ghasali, M.R. Derakhshandeh, M. Alizadeh, M.S. Asl, T. Ebadzadeh, Co-reinforcing of mullite-TiN-CNT composites with ZrB2 and TiB2 compounds, Ceramics International 45(16) (2019) 20844-20854. ## [20] A. Agarwal, S.R. Bakshi, D. Lahiri, Carbon nanotubes: reinforced metal matrix composites, CRC press2018. ## [21] G. Fan, Y. Jiang, Z. Tan, Q. Guo, D.-b. Xiong, Y. Su, R. Lin, L. Hu, Z. Li, D. Zhang, Enhanced interfacial bonding and mechanical properties in CNT/Al composites fabricated by flake powder metallurgy, Carbon 130 (2018) 333-339. ## [22] M. Chen, G. Fan, Z. Tan, D. Xiong, Q. Guo, Y. Su, J. Zhang, Z. Li, M. Naito, D. Zhang, Design of an efficient flake powder metallurgy route to fabricate CNT/6061Al composites, Materials and Design 142 (2018) 288-296. ## [23] M. Akbarpour, S. Alipour, M. Farvizi, H. Kim, Mechanical, tribological and electrical properties of Cu-CNT composites fabricated by flake powder metallurgy method, Archives of Civil and Mechanical Engineering 19 (2019) 694-706. ## [24] A. Pradityana, Sulistijono, A. Shahab, S. Chyntara, Eco-friendly green inhibitor of mild steel in 3, 5% NaCl solution by Sarang Semut (Myrmecodia Pendans) extract, AIP Conference Proceedings, AIP, 2014, pp. 161-164. ## [25] P. Dai, C. Zhang, J. Wen, H. Rao, Q. Wang, Tensile properties of electrodeposited nanocrystalline Ni-Cu alloys, Journal of Materials Engineering and Performance 25(2) (2016) 594-600. ## [26] I. Bakonyi, E. Tóth-Kádár, J. Tóth, T. Becsei, T. Tarnóczi, P. Kamasa, Magnetic and electrical transport properties of electrodeposited Ni-Cu alloys and multilayers, Journal of Physics: Condensed Matter 11(4) (1999) 963. ## [27] U. Sarac, M.C. Baykul, Morphological and microstructural properties of two-phase Ni–Cu films electrodeposited at different electrolyte temperatures, Journal of alloys and compounds 552 (2013) 195-201. ## [28] L. Chen, L. Wang, Z. Zeng, T. Xu, Influence of pulse frequency on the microstructure and wear resistance of electrodeposited Ni–Al2O3 composite coatings, Surface and Coatings Technology 201(3) (2006) 599-605. ## [29] L. Wang, Y. Gao, Q. Xue, H. Liu, T. Xu, Microstructure and tribological properties of electrodeposited Ni–Co alloy deposits, Applied Surface Science 242(3-4) (2005) 326-332. ## [30] M. Zamani, A. Amadeh, S.L. Baghal, Effect of Co content on electrodeposition mechanism and mechanical properties of electrodeposited Ni–Co alloy, Transactions of Nonferrous Metals Society of China 26(2) (2016) 484-491. ## [31] L. Reinert, S. Suárez, A. Rosenkranz, Tribo-mechanisms of carbon nanotubes: friction and wear behavior of CNT-reinforced nickel matrix composites and CNT-coated bulk nickel, Lubricants 4(2) (2016) 11. ## [32] A. Laszczyńska, J. Winiarski, B. Szczygieł, I. Szczygieł, Electrodeposition and characterization of Ni–Mo–ZrO2 composite coatings, Applied Surface Science 369 (2016) 224-231. ## [33] Q. Feng, T. Li, H. Teng, X. Zhang, Y. Zhang, C. Liu, J. Jin, Investigation on the corrosion and oxidation resistance of Ni–Al2O3 nano-composite coatings prepared by sediment co-deposition, Surface and Coatings Technology 202(17) (2008) 4137-4144. ## [34] M. Alizadeh, Strengthening mechanisms in particulate Al/B4C composites produced by repeated roll bonding process, Journal of Alloys and Compounds 509(5) (2011) 2243-2247. ## [35] M. Alishahi, S.M. Monirvaghefi, A. Saatchi, S.M. Hosseini, The effect of carbon nanotubes on the corrosion and tribological behavior of electroless Ni–P–CNT composite coating, Applied Surface Science 258(7) (2012) 2439-2446. ## [36] Z.-q. MENG, X.-b. LI, Y.-j. XIONG, Z. Jing, Preparation and tribological performances of Ni-P-multi-walled carbon nanotubes composite coatings, Transactions of Nonferrous Metals Society of China 22(11) (2012) 2719-2725. ## [37] R. Casati, M. Vedani, Metal matrix composites reinforced by nano-particles—a review, Metals 4(1) (2014) 65-83. ## [38] Z. Li, X. Wang, M. Wang, F. Wang, H. Ge, Preparation and tribological properties of the carbon nanotubes–Ni–P composite coating, Tribology international 39(9) (2006) 953-957. ## [39] X. Chen, C. Chen, H. Xiao, H. Liu, L. Zhou, S. Li, G. Zhang, Dry friction and wear characteristics of nickel/carbon nanotube electroless composite deposits, Tribology international 39(1) (2006) 22-28. ## [40] W. Chen, J. Tu, H. Gan, Z. Xu, Q. Wang, J. Lee, Z. Liu, X. Zhang, Electroless preparation and tribological properties of Ni-P-Carbon nanotube composite coatings under lubricated condition, Surface and Coatings Technology 160(1) (2002) 68-73. ## [41] A.D. Moghadam, E. Omrani, P.L. Menezes, P.K. Rohatgi, Mechanical and tribological properties of self-lubricating metal matrix nanocomposites reinforced by carbon nanotubes (CNTs) and graphene–a review, Composites Part B: Engineering 77 (2015) 402-420. ## [42] A. Barbucci, G. Farne, P. Matteazzi, R. Riccieri, G. Cerisola, Corrosion behaviour of nanocrystalline Cu90Ni10 alloy in neutral solution containing chlorides, Corrosion Science 41(3) (1998) 463-475. ## [43] H. Dhar, R.E. White, G. Burnell, L. Cornwell, R. Griffin, R. Darby, Corrosion of Cu and Cu-Ni alloys in 0.5 M NaCl and in synthetic seawater, Corrosion 41(6) (1985) 317-323. ## [44] A. Varea, E. Pellicer, S. Pané, B.J. Nelson, S. Suriñach, M.D. Baró, J. Sort, Mechanical properties and corrosion behaviour of nanostructured Cu-rich CuNi electrodeposited films, Int. J. Electrochem. Sci 7(2) (2012) 1288-1302. ## [45] H.-h. Zhou, Z.-w. Liao, C.-x. Fang, H.-x. Li, F. Bin, X. Song, G.-f. Cao, Y.-f. Kuang, Pulse electroplating of Ni-WP coating and its anti-corrosion performance, Transactions of Nonferrous Metals Society of China 28(1) (2018) 88-95. ## [46] M. Metikoš-Huković, I. Škugor, Z. Grubač, R. Babić, Complexities of corrosion behaviour of copper–nickel alloys under liquid impingement conditions in saline water, Electrochimica acta 55(9) (2010) 3123-3129. ## [47] Q. Li, X. Yang, L. Zhang, J. Wang, B. Chen, Corrosion resistance and mechanical properties of pulse electrodeposited Ni–TiO2 composite coating for sintered NdFeB magnet, Journal of Alloys and Compounds 482(1-2) (2009) 339-344. ## [48] H.R. Bakhsheshi‐Rad, X. Chen, A.F. Ismail, M. Aziz, E. Abdolahi, F. Mahmoodiyan, Improved antibacterial properties of an Mg‐Zn‐Ca alloy coated with chitosan nanofibers incorporating silver sulfadiazine multiwall carbon nanotubes for bone implants, Polymers for Advanced Technologies 30(5) (2019) 1333-1339. ## [49] L.-Y. Cui, S.-D. Gao, P.-P. Li, R.-C. Zeng, F. Zhang, S.-Q. Li, E.-H. Han, Corrosion resistance of a self-healing micro-arc oxidation/polymethyltrimethoxysilane composite coating on magnesium alloy AZ31, Corrosion Science 118 (2017) 84-95. ## [50] S. Mo, L.J. Li, H.Q. Luo, N.B. Li, An example of green copper corrosion inhibitors derived from flavor and medicine: vanillin and isoniazid, Journal of Molecular Liquids 242 (2017) 822-830. ## [51] M. Abdallah, Antibacterial drugs as corrosion inhibitors for corrosion of aluminium in hydrochloric solution, Corrosion Science 46(8) (2004) 1981-1996.##

1 - Corrosion behavior of aluminum oxide coatings created by electrolytic plasma method under different potential regimes https://www.jourcc.com/index.php/jourcc/article/view/jcc234 10.29252/jcc.2.3.4 1 The electrolytic plasma coating is affected by various factors such as electrolyte conductivity, voltage, and current. However, there has not been much attention to the effect of the current regime. The main objective of the present study is to investigate the potential of Al2O3 coatings deposited by the electrolytic plasma method. Aluminum Series 2 was used in this study and the electrolyte was composed of sodium silicate, sodium tetraphosphate, sodium aluminate and potassium hydroxide. The results showed that, in general, according to the impedance diagrams, the corrosion resistance of the coated specimens greatly increases with the immersion time. Therefore, the unit of resistance increased on average to about 10 MHz after 72 hours. In the case of pulsed potential application regime, the corrosion behavior of the samples in the working cycle of 30% was better than that of 70%, which can be related to the thickness of the formed coatings and their porosity. This allows the coating to degrade the coating faster by increasing the thickness and decreasing the porosity of the aggressive chloride ion. 0 - 129 137 - - Mahsa Amiri Material and Metallurgical Engineering Department, Amirkabir University of Technology Iran info@jourcc.com - - Vahid Tavakoli Targhi Material and Metallurgical Engineering Department, Amirkabir University of Technology Iran info@jourcc.com - - Saman Padervand Material and Metallurgical Engineering Department, Amirkabir University of Technology Iran info@jourcc.com - - Seyed Mohammad Mousavi khoei Material and Metallurgical Engineering Department, Amirkabir University of Technology Iran Mmousavi@aut.ac.ir Plasma electrolytic oxidation Aluminum oxide coatings Potential regime Corrosion [1] I. Tajzad, E. Ghasali, Production methods of CNT-reinforced Al matrix composites: a review, Journal of Composites and Compounds 2(1) (2020) 1-9. ## [2] K. Zhang, H.W. Jang, Q. Van Le, Production methods of ceramic-reinforced Al-Li matrix composites: A review, Journal of Composites and Compounds 2(3) (2020) 77-84. ## [3] F. Sharifianjazi, M. Moradi, A. Abouchenari, A.H. Pakseresht, A. Esmaeilkhanian, M. Shokouhimehr, M.S. Asl, Effects of Sr and Mg dopants on biological and mechanical properties of SiO2–CaO–P2O5 bioactive glass, Ceramics International (2020). ## [4] B. Ghorbanian, S.M.M. Khoie, Formation of vanadium carbide with the plasma electrolytic saturation method (PES) and comparison with Thermo Reactive diffusion method (TRD), Acta Metallurgica Slovaca 22(2) (2016) 111-119. ## [5] S. Nasibi, K. Alimohammadi, L. Bazli, S. Eskandarinezhad, A. Mohammadi, N. Sheysi, TZNT alloy for surgical implant applications: A systematic review, Journal of Composites and Compounds 2(3) (2020) 62-68. ## [6] B. Kasalica, M. Petković-Benazzouz, M. Sarvan, I. Belča, B. Maksimović, B. Misailović, Z. Popović, Mechanisms of plasma electrolytic oxidation of aluminum at the multi-hour timescales, Surface and Coatings Technology (2020) 125681. ## [7] T. Kikuchi, T. Taniguchi, R.O. Suzuki, S. Natsui, Fabrication of a plasma electrolytic oxidation/anodic aluminum oxide multi-layer film via one-step anodizing aluminum in ammonium carbonate, Thin Solid Films 697 (2020) 137799. ## [8] W. Liu, C. Blawert, M.L. Zheludkevich, Y. Lin, M. Talha, Y. Shi, L. Chen, Effects of graphene nanosheets on the ceramic coatings formed on Ti6Al4V alloy drill pipe by plasma electrolytic oxidation, Journal of Alloys and Compounds 789 (2019) 996-1007. ## [9] L. Famiyeh, H. Xiaohu, Improving Corrosion Resistance and Mechanical Properties of Aluminum and its Alloys via Plasma Electrolytic Oxidation (PEO) for Aerospace Applications: A Review. ## [10] R. Barik, J. Wharton, R. Wood, K. Stokes, R. Jones, Corrosion, erosion and erosion–corrosion performance of plasma electrolytic oxidation (PEO) deposited Al2O3 coatings, Surface and coatings technology 199(2-3) (2005) 158-167. ## [11] L. Pezzato, M. Rigon, A. Martucci, K. Brunelli, M. Dabalà, Plasma Electrolytic Oxidation (PEO) as pre-treatment for sol-gel coating on aluminum and magnesium alloys, Surface and Coatings Technology 366 (2019) 114-123. ## [12] V. Dehnavi, B.L. Luan, D.W. Shoesmith, X.Y. Liu, S. Rohani, Effect of duty cycle and applied current frequency on plasma electrolytic oxidation (PEO) coating growth behavior, Surface and Coatings Technology 226 (2013) 100-107. ## [13] S.S. Kamble, A. Gunasekaran, S.A. Gawankar, Sustainable Industry 4.0 framework: A systematic literature review identifying the current trends and future perspectives, Process Safety and Environmental Protection 117 (2018) 408-425. ## [14] J. Parameswaranpillai, S.K. Sidhardhan, P. Harikrishnan, J. Pionteck, S. Siengchin, A.B. Unni, A. Magueresse, Y. Grohens, N. Hameed, S. Jose, Morphology, thermo-mechanical properties and surface hydrophobicity of nanostructured epoxy thermosets modified with PEO-PPO-PEO triblock copolymer, Polymer Testing 59 (2017) 168-176. ## [15] J. Curran, T. Clyne, Thermo-physical properties of plasma electrolytic oxide coatings on aluminium, Surface and Coatings Technology 199(2-3) (2005) 168-176. ## [16] Y.-J. Oh, J.-I. Mun, J.-H. Kim, Effects of alloying elements on microstructure and protective properties of Al2O3 coatings formed on aluminum alloy substrates by plasma electrolysis, Surface and Coatings Technology 204(1-2) (2009) 141-148. ## [17] A. Shirani, T. Joy, A. Rogov, M. Lin, A. Yerokhin, J.-E. Mogonye, A. Korenyi-Both, S.M. Aouadi, A.A. Voevodin, D. Berman, PEO-Chameleon as a potential protective coating on cast aluminum alloys for high-temperature applications, Surface and Coatings Technology (2020) 126016. ## [18] J. Guest, S. Papavinasam, N.S. Berke, S. Brossia, Corrosion Monitoringand Measurement. ## [19] Y. Rao, Q. Wang, D. Oka, C.S. Ramachandran, On the PEO treatment of cold sprayed 7075 aluminum alloy and its effects on mechanical, corrosion and dry sliding wear performances thereof, Surface and Coatings Technology 383 (2020) 125271. ## [20] T. Arunnellaiappan, S. Arun, S. Hariprasad, S. Gowtham, B. Ravisankar, N. Rameshbabu, Fabrication of corrosion resistant hydrophobic ceramic nanocomposite coatings on PEO treated AA7075, Ceramics International 44(1) (2018) 874-884. ## [21] E. Parfenov, A. Yerokhin, A. Matthews, Impedance spectroscopy characterisation of PEO process and coatings on aluminium, Thin solid films 516(2-4) (2007) 428-432. ## [22] A. Bahramian, K. Raeissi, A. Hakimizad, Characterizing of DC-Plasma Electrolytic Oxidation (PEO) Coatings on 7075 Aluminum Alloy. ## [23] K. Khaled, Electrochemical investigation and modeling of corrosion inhibition of aluminum in molar nitric acid using some sulphur-containing amines, Corrosion Science 52(9) (2010) 2905-2916. ## [24] E. Akbari, F. Di Franco, P. Ceraolo, K. Raeissi, M. Santamaria, A. Hakimizad, Electrochemically-induced TiO2 incorporation for enhancing corrosion and tribocorrosion resistance of PEO coating on 7075 Al alloy, Corrosion Science 143 (2018) 314-328. ## [25] H.P. Hack, J.R. Scully, Defect area determination of organic coated steels in seawater using the breakpoint frequency method, Journal of the Electrochemical Society 138(1) (1991) 33. ## [26] V. Egorkin, S. Gnedenkov, S. Sinebryukhov, I. Vyaliy, A. Gnedenkov, R. Chizhikov, Increasing thickness and protective properties of PEO-coatings on aluminum alloy, Surface and coatings Technology 334 (2018) 29-42. ## [27] I.Š. Rončević, Z. Grubač, M. Metikoš-Huković, Electrodeposition of hydroxyapatite coating on AZ91D alloy for biodegradable implant application, Int. J. Electrochem. Sci 9 (2014) 5907-5923. ## [28] A. Hakimizad, K. Raeissi, M.A. Golozar, X. Lu, C. Blawert, M.L. Zheludkevich, The effect of pulse waveforms on surface morphology, composition and corrosion behavior of Al2O3 and Al2O3/TiO2 nano-composite PEO coatings on 7075 aluminum alloy, Surface and Coatings Technology 324 (2017) 208-221. ## [29] G. Paglia, C. Buckley, A. Rohl, B. Hunter, R. Hart, J. Hanna, L. Byrne, Tetragonal structure model for boehmite-derived γ-alumina, Physical Review B 68(14) (2003) 144110.

1 - The rechargeable aluminum-ion battery with different composite cathodes: A review https://www.jourcc.com/index.php/jourcc/article/view/jcc235 10.29252/jcc.2.3.5 1 Digital cameras, laptop computers, cellular phones, as well as many portable electronic devices require batteries for powering. Based on the electrolyte type, electrolytic batteries can be categorized into solid-based, liquid-based, and ionic-based batteries. Aluminum ion batteries (AIBs) have some promising properties such as low cost, high safety, and high specific volumetric capacity. Nevertheless, in order for AIBs to be extensively used, developing novel electrode materials possessing high energy density is required. This is mainly dependent on the cathode materials. However, these cathode materials have some drawbacks such as structural decomposition, low battery capacity, low discharge voltage, and volume expansion resulting from the intercalation of large-sized ions. Therefore, future research might concentrate on the investigation of cheaper electrolyte and novel cathode materials for enhancement of energy density and working voltage. This review focuses on the recent cathodes, in particular, composite cathode materials, including graphite, CuS, V2O5, Li3VO4@C, VS4/rGO, and Ni3S2/graphene. 0 - 138 146 - - Leyla Saei Fard Department of Organic and Biochemistry, University of Tabriz Iran leylasaiifard@yahoo.com - - Naeimeh Sadat Peighambardoust Koç University Boron and Advanced Materials Applications and Research Center (KUBAM) Turkey info@jourcc.com - - Ho Won Jang Department of Materials Science and Engineering, Seoul National University Republic of Korea info@jourcc.com - - Alireza Dehghan Department of Research and Development, Applied research center of the geological survey of Iran Iran info@jourcc.com - - Niloufar Nehzat Khosh Saligheh Shomal University Iran info@jourcc.com - - Marjan Iranpour Department of Agricultural Machinery Mechanics, Univesity of Tehran Iran info@jourcc.com - - Mitra Isvand Rajabi Islamic Azad University, Dezful Branch Iran info@jourcc.com Liquid electrolyte Solid electrolyte Ionic electrolyte Aluminum-ion battery Composite cathodes [1] S. Saadi, B. Nazari, Recent developments and applications of nanocomposites in solar cells: a review, Journal of Composites and Compounds 1(1) (2019) 48-58. ## [2] J. Shin, Ionic liquids to the rescue Overcoming the ionic conductivity limitations of polymer electrolytes, Electrochemistry Communications 5(12) (2003) 1016-1020. ## [3] X. Zhang, S. Wang, J. Tu, G. Zhang, S. Li, D. Tian, S. Jiao, Flower-like Vanadium Suflide/Reduced Graphene Oxide Composite: An Energy Storage Material for Aluminum-Ion Batteries, ChemSusChem 11(4) (2018) 709-715. ## [4] T. Leisegang, F. Meutzner, M. Zschornak, W. Munchgesang, R. Schmid, T. Nestler, R.A. Eremin, A.A. Kabanov, V.A. Blatov, D.C. Meyer, The Aluminum-Ion Battery: A Sustainable and Seminal Concept?, Front Chem 7 (2019) 268. ## [5] A. Kim, Li Intercalation into Carbonaceous Anode Materials for LiAlCl4∙3SO2 Electrolyte Based Lithium Ion Battery, Hanyang, 2019. ## [6] S. Wang, Z. Yu, J. Tu, J. Wang, D. Tian, Y. Liu, S. Jiao, A novel aluminum‐ion battery: Al/AlCl3‐[EMIm] Cl/Ni3S2@graphene, Advanced Energy Materials 6(13) (2016) 1600137. ## [7] J. Li, C. Ma, M. Chi, C. Liang, N.J. Dudney, Solid Electrolyte: the Key for High-Voltage Lithium Batteries, Advanced Energy Materials 5(4) (2015). ## [8] Y. Ru, S. Zheng, H. Xue, H. Pang, Potassium cobalt hexacyanoferrate nanocubic assemblies for high-performance aqueous aluminum ion batteries, Chemical Engineering Journal 382 (2020) 122853. ## [9] K. Zhang, H.W. Jang, Q. Van Le, Production methods of ceramic-reinforced Al-Li matrix composites: A review, Journal of Composites and Compounds 2(3) (2020) 76-84. ## [10] I. Tajzad, E. Ghasali, Production methods of CNT-reinforced Al matrix composites: a review, Journal of Composites and Compounds 2(1) (2020) 1-9. ## [11] J. Jiang, H. Li, J. Huang, K. Li, J. Zeng, Y. Yang, J. Li, Y. Wang, J. Wang, J. Zhao, Investigation of the Reversible Intercalation/Deintercalation of Al into the Novel Li3VO4@C Microsphere Composite Cathode Material for Aluminum-Ion Batteries, ACS Appl Mater Interfaces 9(34) (2017) 28486-28494. ## [12] S. Wang, S. Jiao, J. Wang, H.S. Chen, D. Tian, H. Lei, D.N. Fang, High-Performance Aluminum-Ion Battery with CuS@C Microsphere Composite Cathode, ACS Nano 11(1) (2017) 469-477. ## [13] N.C. Rosero-Navarro, A. Miura, K. Tadanaga, Preparation of lithium ion conductive Li6PS5Cl solid electrolyte from solution for the fabrication of composite cathode of all-solid-state lithium battery, Journal of Sol-Gel Science and Technology 89(1) (2019) 303-309. ## [14] L. Larush, V. Borgel, E. Markevich, O. Haik, E. Zinigrad, D. Aurbach, G. Semrau, M. Schmidt, On the thermal behavior of model Li–LixCoO2 systems containing ionic liquids in standard electrolyte solutions, Journal of Power Sources 189(1) (2009) 217-223. ## [15] A. Lewandowski, A. Świderska-Mocek, Ionic liquids as electrolytes for Li-ion batteries—An overview of electrochemical studies, Journal of Power Sources 194(2) (2009) 601-609. ## [16] Y. Zhang, Y. Zhao, K. Eun Sun, P. Chen, Development in lithium/sulfur secondary batteries, The Open Materials Science Journal 5(1) (2011). ## [17] S.S. Zhang, Liquid electrolyte lithium/sulfur battery: fundamental chemistry, problems, and solutions, Journal of Power Sources 231 (2013) 153-162. ## [18] R. Rauh, K. Abraham, G. Pearson, J. Surprenant, S. Brummer, A lithium/dissolved sulfur battery with an organic electrolyte, Journal of the Electrochemical Society 126(4) (1979) 523. ## [19] E. Peled, Y. Sternberg, A. Gorenshtein, Y. Lavi, Lithium‐sulfur battery: evaluation of dioxolane‐based electrolytes, Journal of the Electrochemical Society 136(6) (1989) 1621. ## [20] S.S. Zhang, J.A. Read, A new direction for the performance improvement of rechargeable lithium/sulfur batteries, Journal of Power Sources 200 (2012) 77-82. ## [21] Z. Ye, Z. Cao, M.O. Lam Chee, P. Dong, P.M. Ajayan, J. Shen, M. Ye, Advances in Zn-ion batteries via regulating liquid electrolyte, Energy Storage Materials 32 (2020) 290-305. ## [22] S. Sarwar, M.-s. Lee, S. Park, T.T. Dao, A. Ullah, S. Hong, C.-H. Han, Transformation of a liquid electrolyte to a gel inside dye sensitized solar cells for better stability and performance, Thin Solid Films 704 (2020) 138024. ## [23] S.S. Zhang, New insight into liquid electrolyte of rechargeable lithium/sulfur battery, Electrochimica Acta 97 (2013) 226-230. ## [24] H. Yamin, A. Gorenshtein, J. Penciner, Y. Sternberg, E. Peled, Lithium sulfur battery: oxidation/reduction mechanisms of polysulfides in THF solutions, Journal of the Electrochemical Society 135(5) (1988) 1045. ## [25] D. Marmorstein, T. Yu, K. Striebel, F. McLarnon, J. Hou, E. Cairns, Electrochemical performance of lithium/sulfur cells with three different polymer electrolytes, Journal of Power Sources 89(2) (2000) 219-226. ## [26] H.-S. Ryu, H.-J. Ahn, K.-W. Kim, J.-H. Ahn, J.-Y. Lee, Discharge process of Li/PVdF/S cells at room temperature, Journal of Power Sources 153(2) (2006) 360-364. ## [27] J. Shin, S. Jung, K. Kim, H. Ahn, J. Ahn, Preparation and characterization of plasticized polymer electrolytes based on the PVdF-HFP copolymer for lithium/sulfur battery, Journal of Materials Science: Materials in Electronics 13(12) (2002) 727-733. ## [28] B.H. Jeon, J.H. Yeon, I.J. Chung, Preparation and electrical properties of lithium–sulfur-composite polymer batteries, Journal of materials processing technology 143 (2003) 93-97. ## [29] B.H. Jeon, J.H. Yeon, K.M. Kim, I.J. Chung, Preparation and electrochemical properties of lithium–sulfur polymer batteries, Journal of power sources 109(1) (2002) 89-97. ## [30] J.-W. Choi, J.-K. Kim, G. Cheruvally, J.-H. Ahn, H.-J. Ahn, K.-W. Kim, Rechargeable lithium/sulfur battery with suitable mixed liquid electrolytes, Electrochimica Acta 52(5) (2007) 2075-2082. ## [31] E. Peled, A. Gorenshtein, M. Segal, Y. Sternberg, Rechargeable lithium sulfur battery, Journal of Power Sources 26(3-4) (1989) 269-271. ## [32] H. Ryu, H. Ahn, K. Kim, J. Ahn, J.-Y. Lee, E. Cairns, Self-discharge of lithium–sulfur cells using stainless-steel current-collectors, Journal of Power Sources 140(2) (2005) 365-369. ## [33] D.-R. Chang, S.-H. Lee, S.-W. Kim, H.-T. Kim, Binary electrolyte based on tetra (ethylene glycol) dimethyl ether and 1, 3-dioxolane for lithium–sulfur battery, Journal of Power Sources 112(2) (2002) 452-460. ## [34] S.-E. Cheon, K.-S. Ko, J.-H. Cho, S.-W. Kim, E.-Y. Chin, H.-T. Kim, Rechargeable lithium sulfur battery: I. Structural change of sulfur cathode during discharge and charge, Journal of the Electrochemical Society 150(6) (2003) A796. ## [35] H.-S. Ryu, H.-J. Ahn, K.-W. Kim, J.-H. Ahn, K.-K. Cho, T.-H. Nam, J.-U. Kim, G.-B. Cho, Discharge behavior of lithium/sulfur cell with TEGDME based electrolyte at low temperature, Journal of Power Sources 163(1) (2006) 201-206. ## [36] J. Wang, Y. Wang, X. He, J. Ren, C. Jiang, C. Wan, Electrochemical characteristics of sulfur composite cathode materials in rechargeable lithium batteries, Journal of power sources 138(1-2) (2004) 271-273. ## [37] J. Wang, L. Liu, Z. Ling, J. Yang, C. Wan, C. Jiang, Polymer lithium cells with sulfur composites as cathode materials, Electrochimica Acta 48(13) (2003) 1861-1867. ## [38] H. Yang, F. Wu, Y. Bai, C. Wu, Toward better electrode/electrolyte interfaces in the ionic-liquid-based rechargeable aluminum batteries, Journal of Energy Chemistry 45 (2020) 98-102. ## [39] X. Wang, Z. Shang, A. Yang, Q. Zhang, F. Cheng, D. Jia, J. Chen, Combining quinone cathode and ionic liquid electrolyte for organic sodium-ion batteries, Chem 5(2) (2019) 364-375. ## [40] X. Ke, Y. Wang, L. Dai, C. Yuan, Cell failures of all-solid-state lithium metal batteries with inorganic solid electrolytes: Lithium dendrites, Energy Storage Materials (2020). ## [41] X. Wang, J. Sun, C. Feng, X. Wang, M. Xu, J. Sun, N. Zhang, J. Ma, Q. Wang, C. Zong, G. Cui, Lithium bis(oxalate)borate crosslinked polymer electrolytes for high-performance lithium batteries, Journal of Energy Chemistry 55 (2021) 228-235. ## [42] X. Zhang, W. Zhou, M. Zhang, Z. Yang, W. Huang, Superior performance for lithium-ion battery with organic cathode and ionic liquid electrolyte, Journal of Energy Chemistry 52 (2021) 28-32. ## [43] Z. Zhang, J. Zhang, H. Jia, L. Peng, T. An, J. Xie, Enhancing ionic conductivity of solid electrolyte by lithium substitution in halogenated Li-Argyrodite, Journal of Power Sources 450 (2020) 227601. ## [44] M.A.K.L. Dissanayake, T. Liyanage, T. Jaseetharan, G.K.R. Senadeera, B.S. Dassanayake, Effect of PbS quantum dot-doped polysulfide nanofiber gel polymer electrolyte on efficiency enhancement in CdS quantum dot-sensitized TiO2 solar cells, Electrochimica Acta 347 (2020) 136311. ## [45] A. Gupta, A. Bhargav, J.-P. Jones, R.V. Bugga, A. Manthiram, Influence of Lithium Polysulfide Clustering on the Kinetics of Electrochemical Conversion in Lithium–Sulfur Batteries, Chemistry of Materials 32(5) (2020) 2070-2077. ## [46] Z. Liu, V.S. Manikandan, A. Chen, Recent advances in nanomaterial-based electrochemical sensing of nitric oxide and nitrite for biomedical and food research, Current Opinion in Electrochemistry 16 (2019) 127-133. ## [47] S.-e. Sheng, L. Sheng, L. Wang, N. Piao, X. He, Thickness variation of lithium metal anode with cycling, Journal of Power Sources 476 (2020) 228749. ## [48] L. Kong, L. Yin, F. Xu, J. Bian, H. Yuan, Z. Lu, Y. Zhao, Electrolyte solvation chemistry for lithium–sulfur batteries with electrolyte-lean conditions, Journal of Energy Chemistry 55 (2021) 80-91. ## [49] R. Weber, M. Genovese, A. Louli, S. Hames, C. Martin, I.G. Hill, J. Dahn, Long cycle life and dendrite-free lithium morphology in anode-free lithium pouch cells enabled by a dual-salt liquid electrolyte, Nature Energy 4(8) (2019) 683-689. ## [50] H. Xia, C. Li, H. Chen, Green preparation of CuI particles in dielectric barrier discharge for colorimetric determination of trace mercury in comparison with atomic fluorescence spectrometric determination, Microchemical Journal 146 (2019) 1169-1172. ## [51] H. Zhuo, X. Wang, A. Tang, Z. Liu, S. Gamboa, P. Sebastian, The preparation of NaV1−xCrxPO4F cathode materials for sodium-ion battery, Journal of power sources 160(1) (2006) 698-703. ## [52] R. Alcántara, J.M. Jiménez-Mateos, P. Lavela, J.L. Tirado, Carbon black: a promising electrode material for sodium-ion batteries, Electrochemistry Communications 3(11) (2001) 639-642. ## [53] S. Komaba, C. Takei, T. Nakayama, A. Ogata, N. Yabuuchi, Electrochemical intercalation activity of layered NaCrO2 vs. LiCrO2, Electrochemistry Communications 12(3) (2010) 355-358. ## [54] P. Moreau, D. Guyomard, J. Gaubicher, F. Boucher, Structure and stability of sodium intercalated phases in olivine FePO4, Chemistry of Materials 22(14) (2010) 4126-4128. ## [55] K.O. Oyedotun, T.M. Masikhwa, S. Lindberg, A. Matic, P. Johansson, N. Manyala, Comparison of ionic liquid electrolyte to aqueous electrolytes on carbon nanofibres supercapacitor electrode derived from oxygen-functionalized graphene, Chemical Engineering Journal 375 (2019) 121906. ## [56] H. Ryu, T. Kim, K. Kim, J.-H. Ahn, T. Nam, G. Wang, H.-J. Ahn, Discharge reaction mechanism of room-temperature sodium–sulfur battery with tetra ethylene glycol dimethyl ether liquid electrolyte, Journal of Power Sources 196(11) (2011) 5186-5190. ## [57] R. Pathak, K. Chen, A. Gurung, K.M. Reza, B. Bahrami, J. Pokharel, A. Baniya, W. He, F. Wu, Y. Zhou, Fluorinated hybrid solid-electrolyte-interphase for dendrite-free lithium deposition, Nature communications 11(1) (2020) 1-10. ## [58] Y. Liu, J. Liu, Q. Sun, D. Wang, K.R. Adair, J. Liang, C. Zhang, L. Zhang, S. Lu, H. Huang, Insight into the microstructure and ionic conductivity of cold sintered NASICON solid electrolyte for solid-state batteries, ACS applied materials and interfaces 11(31) (2019) 27890-27896. ## [59] Z. Chang, Y. Qiao, H. Deng, H. Yang, P. He, H. Zhou, A Liquid Electrolyte with De-Solvated Lithium Ions for Lithium-Metal Battery, Joule 4(8) (2020) 1776-1789. ## [60] Y. Deng, X. Zhu, N. Chen, C. Feng, H. Wang, P. Kuang, W. Hu, Review on electrochemical system for landfill leachate treatment: Performance, mechanism, application, shortcoming, and improvement scheme, Science of The Total Environment 745 (2020) 140768. ## [61] A. Sakuda, A. Hayashi, M. Tatsumisago, Sulfide solid electrolyte with favorable mechanical property for all-solid-state lithium battery, Sci Rep 3 (2013) 2261. ## [62] A.L. Santhosha, L. Medenbach, T. Palaniselvam, P. Adelhelm, Sodium-Storage Behavior of Exfoliated MoS2 as an Electrode Material for Solid-State Batteries with Na3PS4 as the Solid Electrolyte, The Journal of Physical Chemistry C 124(19) (2020) 10298-10305. ## [63] T. Le Varlet, O. Schmidt, A. Gambhir, S. Few, I. Staffell, Comparative life cycle assessment of lithium-ion battery chemistries for residential storage, Journal of Energy Storage 28 (2020) 101230. ## [64] R. Yazami, Y.F. Reynier, Mechanism of self-discharge in graphite–lithium anode, Electrochimica Acta 47(8) (2002) 1217-1223. ## [65] P. Novák, J.-C. Panitz, F. Joho, M. Lanz, R. Imhof, M. Coluccia, Advanced in situ methods for the characterization of practical electrodes in lithium-ion batteries, Journal of power sources 90(1) (2000) 52-58. ## [66] N. Ogihara, Y. Igarashi, A. Kamakura, K. Naoi, Y. Kusachi, K. Utsugi, Disordered carbon negative electrode for electrochemical capacitors and high-rate batteries, Electrochimica acta 52(4) (2006) 1713-1720. ## [67] F. Ding, Y. Liu, X. Hu, 1,3-dioxolane pretreatment to improve the interfacial characteristics of a lithium anode, Rare Metals 25(4) (2006) 297-302. ## [68] P. Verma, P. Maire, P. Novák, A review of the features and analyses of the solid electrolyte interphase in Li-ion batteries, Electrochimica Acta 55(22) (2010) 6332-6341. ## [69] K.-H. Lee, D.B. Ahn, J.-H. Kim, J.-W. Lee, S.-Y. Lee, Printed Built-In Power Sources, Matter 2(2) (2020) 345-359. ## [70] D.J. Suh, C. Kwak, J.-H. Kim, S.M. Kwon, T.-J. Park, Removal of carbon monoxide from hydrogen-rich fuels by selective low-temperature oxidation over base metal added platinum catalysts, Journal of Power Sources 142(1) (2005) 70-74. ## [71] A. Sakuda, A. Hayashi, T. Ohtomo, S. Hama, M. Tatsumisago, LiCoO2 electrode particles coated with Li2S–P2S5 solid electrolyte for all-solid-state batteries, Electrochemical and Solid State Letters 13(6) (2010) A73. ## [72] X. Wang, Y. Qian, L. Wang, H. Yang, H. Li, Y. Zhao, T. Liu, Sulfurized polyacrylonitrile cathodes with high compatibility in both ether and carbonate electrolytes for ultrastable lithium–sulfur batteries, Advanced Functional Materials 29(39) (2019) 1902929. ## [73] X. Judez, M. Martinez-Ibañez, A. Santiago, M. Armand, H. Zhang, C. Li, Quasi-solid-state electrolytes for lithium sulfur batteries: Advances and perspectives, Journal of Power Sources 438 (2019) 226985. ## [74] S. Wang, K.V. Kravchyk, A.N. Filippin, R. Widmer, A.N. Tiwari, S. Buecheler, M.I. Bodnarchuk, M.V. Kovalenko, Overcoming the High-Voltage Limitations of Li-Ion Batteries Using a Titanium Nitride Current Collector, ACS Applied Energy Materials 2(2) (2019) 974-978. ## [75] D. Hayashi, K. Suzuki, S. Hori, Y. Yamada, M. Hirayama, R. Kanno, Synthesis of Li10GeP2S12-type lithium superionic conductors under Ar gas flow, Journal of Power Sources 473 (2020) 228524. ## [76] L.X. Yuan, J.K. Feng, X.P. Ai, Y.L. Cao, S.L. Chen, H.X. Yang, Improved dischargeability and reversibility of sulfur cathode in a novel ionic liquid electrolyte, Electrochemistry Communications 8(4) (2006) 610-614. ## [77] M. Batteries, CA Vincent and B, Scrosati Wiley, New York (1997) 198-242. ## [78] M. Diaw, A. Chagnes, B. Carré, P. Willmann, D. Lemordant, Mixed ionic liquid as electrolyte for lithium batteries, Journal of Power Sources 146(1-2) (2005) 682-684. ## [79] C. Niu, J. Liu, G. Chen, C. Liu, T. Qian, J. Zhang, B. Cao, W. Shang, Y. Chen, J. Han, Anion-regulated solid polymer electrolyte enhances the stable deposition of lithium ion for lithium metal batteries, Journal of Power Sources 417 (2019) 70-75. ## [80] J.-M. Tarascon, M. Armand, Issues and challenges facing rechargeable lithium batteries, Materials for sustainable energy: a collection of peer-reviewed research and review articles from Nature Publishing Group, World Scientific2011, pp. 171-179. ## [81] ElectroChem integrates fuel cell technology in India, South Asia, Fuel Cells Bulletin 2007(8) (2007) 7. ## [82] G. Angajala, R. Subashini, V. Aruna, Microwave assisted amberlite-IRA-402 (OH) ion exchange resin catalyzed synthesis of new benzoxazole scaffolds derived from antiinflammatory drugs aceclofenac and mefenamic acid as potential therapeutic agents for inflammation, Journal of Molecular Structure 1200 (2020) 127092. ## [83] L. Auzel, Y. Ali, C. Monini, J.M. Létang, E. Testa, M. Beuve, L. Maigne, 35 Simulation of micro-nanodosimetry spectra and free radicals with Geant4-DNA, LQD, PHYCHEML, CHEM for ion beams, Physica Medica 68 (2019) 21-22. ## [84] P. Vikas, I. Sudhakar, Dilkush, G. MohanaRao, B. Srinivas, Aging behaviour of hot deformed AA7075 aluminium alloy, Materials Today: Proceedings (2020). ## [85] M. Alizadeh, M. Paydar, F.S. Jazi, Structural evaluation and mechanical properties of nanostructured Al/B4C composite fabricated by ARB process, Composites Part B: Engineering 44(1) (2013) 339-343. ## [86] E.H. Jazi, R. Esalmi-Farsani, G. Borhani, F.S. Jazi, Synthesis and Characterization of In Situ Al-Al13Fe4-Al2O3-TiB2 Nanocomposite Powder by Mechanical Alloying and Subsequent Heat Treatment, Synthesis and Reactivity in Inorganic, Metal-Organic, and Nano-Metal Chemistry 44(2) (2014) 177-184. ## [87] K. Parveen, U. Rafique, M. Javed Akhtar, M. Ashokkumar, Sonochemical synthesis of aluminium and aluminium hybrids for remediation of toxic metals, Ultrasonics Sonochemistry 70 (2021) 105299. ## [88] H. Dohle, J. Mergel, D. Stolten, Heat and power management of a direct-methanol-fuel-cell (DMFC) system, Journal of Power Sources 111(2) (2002) 268-282. ## [89] M. Tamski, J.P. Ansermet, C. Roussel, Stabilization of p-GaAs electrode surfaces in organic solvent by bi-phenyl rings for spin dependent electron transfer studies, Journal of Photochemistry and Photobiology A: Chemistry (2020) 112853. ## [90] A. Fernández-Guillamón, E. Gómez-Lázaro, E. Muljadi, Á. Molina-García, Power systems with high renewable energy sources: A review of inertia and frequency control strategies over time, Renewable and Sustainable Energy Reviews 115 (2019) 109369. ## [91] N.R. Avery, K.J. Black, Kinetic analysis of capacity fade in lithium/coke half-cells, Journal of Power Sources 68(2) (1997) 191-194. ## [92] K.G.Y. Beaudelaire, B. Zhuang, J.T. Aladejana, D. Li, X. Hou, Y. Xie, Influence of Mesoporous Inorganic Al–B–P Amphiprotic Surfactant Material Resistances of Wood against Brown and White-Rot Fungi (Part 1), Coatings 10(2) (2020) 108. ## [93] S. Abedini, N. Parvin, P. Ashtari, F. Jazi, Microstructure, strength and CO2 separation characteristics of α-alumina supported γ-alumina thin film membrane, Advances in Applied Ceramics 112(1) (2013) 17-22. ## [94] H. Sun, W. Wang, Z. Yu, Y. Yuan, S. Wang, S. Jiao, A new aluminium-ion battery with high voltage, high safety and low cost, Chemical Communications 51(59) (2015) 11892-11895. ## [95] N.S. Hudak, Chloroaluminate-doped conducting polymers as positive electrodes in rechargeable aluminum batteries, The Journal of Physical Chemistry C 118(10) (2014) 5203-5215. ## [96] J.V. Rani, V. Kanakaiah, T. Dadmal, M.S. Rao, S. Bhavanarushi, Fluorinated natural graphite cathode for rechargeable ionic liquid based aluminum–ion battery, Journal of The Electrochemical Society 160(10) (2013) A1781. ## [97] S. Liu, J. Hu, N. Yan, G. Pan, G. Li, X. Gao, Aluminum storage behavior of anatase TiO2 nanotube arrays in aqueous solution for aluminum ion batteries, Energy and Environmental Science 5(12) (2012) 9743-9746. ## [98] L. Bazli, M. Siavashi, A. Shiravi, A Review of Carbon nanotube/TiO2 Composite prepared via Sol-Gel method, Journal of Composites and Compounds 1(1) (2019) 1-12. ## [99] N. Jayaprakash, S. Das, L. Archer, The rechargeable aluminum-ion battery, Chemical Communications 47(47) (2011) 12610-12612. ## [100] S. Liu, G. Pan, G. Li, X. Gao, Copper hexacyanoferrate nanoparticles as cathode material for aqueous Al-ion batteries, Journal of Materials Chemistry A 3(3) (2015) 959-962. ## [101] L.D. Reed, E. Menke, The roles of V2O5 and stainless steel in rechargeable Al–ion batteries, Journal of the Electrochemical Society 160(6) (2013) A915. ## [102] W. Wang, B. Jiang, W. Xiong, H. Sun, Z. Lin, L. Hu, J. Tu, J. Hou, H. Zhu, S. Jiao, A new cathode material for super-valent battery based on aluminium ion intercalation and deintercalation, Scientific reports 3(1) (2013) 1-6. ## [103] S. Wang, Z. Yu, J. Tu, J. Wang, D. Tian, Y. Liu, S. Jiao, A Novel Aluminum-Ion Battery: Al/AlCl3-[EMIm]Cl/Ni3S2@Graphene, Advanced Energy Materials 6(13) (2016). ## [104] Y. Liu, Q. Sun, W. Li, K.R. Adair, J. Li, X. Sun, A comprehensive review on recent progress in aluminum–air batteries, Green Energy and Environment 2(3) (2017) 246-277. ## [105] Q. Li, N.J. Bjerrum, Aluminum as anode for energy storage and conversion: a review, Journal of Power Sources 110(1) (2002) 1-10. ## [106] R.N. Mutlu, I. Kucukkara, A.M. Gizir, Hydrogen generation by electrolysis under subcritical water condition and the effect of aluminium anode, International Journal of Hydrogen Energy 45(23) (2020) 12641-12652. ## [107] B. Craig, T. Schoetz, A. Cruden, C. Ponce de Leon, Review of current progress in non-aqueous aluminium batteries, Renewable and Sustainable Energy Reviews 133 (2020) 110100. ## [108] A. Holland, R. Mckerracher, A. Cruden, R. Wills, An aluminium battery operating with an aqueous electrolyte, Journal of Applied Electrochemistry 48(3) (2018) 243-250. ## [109] J. Li, J. Qiao, K. Lian, Hydroxide ion conducting polymer electrolytes and their applications in solid supercapacitors: a review, Energy Storage Materials 24 (2020) 6-21. ## [110] K.M. Barcelos, K.S.G.C. Oliveira, L.A.M. Ruotolo, Insights on the role of interparticle porosity and electrode thickness on capacitive deionization performance for desalination, Desalination 492 (2020) 114594. ## [111] K.L. Ng, T. Dong, J. Anawati, G. Azimi, High‐Performance Aluminum Ion Battery Using Cost‐Effective AlCl3‐Trimethylamine Hydrochloride Ionic Liquid Electrolyte, Advanced Sustainable Systems (2020) 2000074. ## [112] L. Wei, J. Tao, Y. Yang, X. Fan, X. Ran, J. Li, Y. Lin, Z. Huang, Surface sulfidization of spinel LiNi0.5Mn1.5O4 cathode material for enhanced electrochemical performance in lithium-ion batteries, Chemical Engineering Journal 384 (2020) 123268. ## [113] J. Zhong, Z. Yang, Y. Yu, Y. Liu, J. Li, F. Kang, Surface substitution of polyanion to improve structure stability and electrochemical properties of lithium-rich layered cathode oxides, Applied Surface Science 512 (2020) 145741. ## [114] Y.-C. Yin, Q. Wang, J.-T. Yang, F. Li, G. Zhang, C.-H. Jiang, H.-S. Mo, J.-S. Yao, K.-H. Wang, F. Zhou, Metal chloride perovskite thin film based interfacial layer for shielding lithium metal from liquid electrolyte, Nature communications 11(1) (2020) 1-9. ## [115] J. Schnell, T. Günther, T. Knoche, C. Vieider, L. Köhler, A. Just, M. Keller, S. Passerini, G. Reinhart, All-solid-state lithium-ion and lithium metal batteries – paving the way to large-scale production, Journal of Power Sources 382 (2018) 160-175. ## [116] J. Wei, W. Chen, D. Chen, K. Yang, An amorphous carbon-graphite composite cathode for long cycle life rechargeable aluminum ion batteries, Journal of Materials Science and Technology 34(6) (2018) 983-989. ## [117] K. Zhao, X. Shi, Y. Zhao, H. Wei, Q. Sun, T. Huang, X. Zhang, Y. Wang, Preparation and immunological effectiveness of a swine influenza DNA vaccine encapsulated in chitosan nanoparticles, Vaccine 29(47) (2011) 8549-8556. ## [118] J. Shin, K. Kim, H. Ahn, J. Ahn, Electrochemical properties and interfacial stability of (PEO) 10LiCF3SO3–TinO2n−1 composite polymer electrolytes for lithium/sulfur battery, Materials Science and Engineering: B 95(2) (2002) 148-156. ## [119] D.C. Kim, H.J. Shim, W. Lee, J.H. Koo, D.H. Kim, Material‐Based Approaches for the Fabrication of Stretchable Electronics, Advanced Materials 32(15) (2020) 1902743. ## [120] Y.M. Lee, N.-S. Choi, J.H. Park, J.-K. Park, Electrochemical performance of lithium/sulfur batteries with protected Li anodes, Journal of Power Sources 119 (2003) 964-972. ## [121] S. Fang, D. Bresser, S. Passerini, Transition Metal Oxide Anodes for Electrochemical Energy Storage in Lithium‐and Sodium‐Ion Batteries, Advanced Energy Materials 10(1) (2020) 1902485. ## [122] A. Rafique, M.A. Ahmad, I. Shakir, A. Ali, G. Abbas, M.S. Javed, M.A. Khan, R. Raza, Multioxide phase-based nanocomposite electrolyte (M@ SDC where M= Zn2+/Ba2+/La3+/Zr2+/Al3+) materials, Ceramics International 46(5) (2020) 6882-6888. ## [123] W. Guan, L. Wang, H. Lei, J. Tu, S. Jiao, Sb2Se3 nanorods with N-doped reduced graphene oxide hybrids as high-capacity positive electrode materials for rechargeable aluminum batteries, Nanoscale 11(35) (2019) 16437-16444. ## [124] Y. Zhang, B. Zhang, J. Li, J. Liu, X. Huo, F. Kang, SnSe nano-particles as advanced positive electrode materials for rechargeable aluminum-ion batteries, Chemical Engineering Journal 403 (2021) 126377. ## [125] K. Subramanyan, Y.-S. Lee, V. Aravindan, Impact of carbonate-based electrolytes on the electrochemical activity of carbon-coated Na3V2(PO4)2F3 cathode in full-cell assembly with hard carbon anode, Journal of Colloid and Interface Science 582 (2021) 51-59. ## [126] X. Ke, Y. Wang, G. Ren, C. Yuan, Towards rational mechanical design of inorganic solid electrolytes for all-solid-state lithium ion batteries, Energy Storage Materials 26 (2020) 313-324. ## [127] Q. Zhao, F.K. Butt, Z. Guo, L. Wang, Y. Zhu, X. Xu, X. Ma, C. Cao, High-voltage P2-type manganese oxide cathode induced by titanium gradient modification for sodium ion batteries, Chemical Engineering Journal 403 (2021) 126308. ## [128] J. Jiang, H. Li, J. Huang, K. Li, J. Zeng, Y. Yang, J. Li, Y. Wang, J. Wang, J. Zhao, Investigation of the reversible intercalation/deintercalation of Al into the novel Li3VO4@ C microsphere composite cathode material for aluminum-ion batteries, ACS applied materials and interfaces 9(34) (2017) 28486-28494. ## [129] S. Wang, S. Jiao, J. Wang, H.-S. Chen, D. Tian, H. Lei, D.-N. Fang, High-performance aluminum-ion battery with CuS@ C microsphere composite cathode, ACS nano 11(1) (2017) 469-477. ## [130] Y.-Q. Shen, F.-L. Zeng, X.-Y. Zhou, A.-b. Wang, W.-k. Wang, N.-Y. Yuan, J.-N. Ding, A novel permselective organo-polysulfides/PVDF gel polymer electrolyte enables stable lithium anode for lithium–sulfur batteries, Journal of Energy Chemistry 48 (2020) 267-276. ## [131] D.-R. Chang, S.-H. Lee, S.-W. Kim, H.-T. Kim, Binary electrolyte based on tetra(ethylene glycol) dimethyl ether and 1,3-dioxolane for lithium–sulfur battery, Journal of Power Sources 112(2) (2002) 452-460. ## [132] J. Zhou, X. Zhou, Y. Sun, X. Shen, T. Qian, C. Yan, Insight into the reaction mechanism of sulfur chains adjustable polymer cathode for high-loading lithium-organosulfur batteries, Journal of Energy Chemistry (2020). ## [133] D.K. Rajak, D.D. Pagar, R. Kumar, C.I. Pruncu, Recent progress of reinforcement materials: A comprehensive overview of composite materials, Journal of Materials Research and Technology 8(6) (2019) 6354-6374.

1 - A review on development and application of self-healing thermal barrier composite coatings https://www.jourcc.com/index.php/jourcc/article/view/jcc236 10.29252/jcc.2.3.6 1 To improve the hot section metallic parts durability in advanced gas-turbine operating in power generation and aircraft, thermal barrier coating (TBCs) are extensively utilized to increase their lifetime. The reason for applying coatings on these components is the improvement of their physical properties, mechanical properties, and outer look. The self-repairing ability of materials is very promising due to expanding the service time of materials and it is also beneficial in terms of human safety and financial aspects. In this review article, structure, properties, limitations, and the modification approaches of TBCs were studied. In addition, self-healing agents for TBCs including SiC, MoSi2, TiC were introduced, which release their oxide by reaction with air and O2 that are able to heal the pores/cracks in the coatings. In this regard, their coating methods, mechanism, and applications in TBCs were reviewed. 0 - 147 154 - - Aliasghar Abuchenari Department of Materials Engineering, Shahid Bahonar University Iran info@jourcc.com - - Hadi Ghazanfari Department of Mining, Metallurgical and Materials Engineering, Université Laval Canada hadi.ghazanfari.1@ulaval.ca - - Mostafa Siavashi Faculty of Engineering, Christian-Albrechts-University Kiel Germany info@jourcc.com - - Maryam Sabetzadeh Chemical Engineering Department, Isfahan University of Technology Iran info@jourcc.com - - Sajad Talebi Department of Materials and Metallurgy, University of Arak Iran info@jourcc.com - - Zahra Karami Chemeh Department of textile Engineering, Amirkabir University of Technology Iran info@jourcc.com - - Ata Jamavari Department of Material Science and Engineering, University of Science and Technology Iran info@jourcc.com Thermal barrier coating (TBC) TBC lifetime TBC modifcation Self-healing composite [1] B. Zhou, S. Yang, C. Wang, X. Hu, W. Song, J. Cai, Q. Xu, N. Sang, The characterization of free radical reaction in coal low-temperature oxidation with different oxygen concentration, Fuel 262 (2020) 116524. ## [2] I. Tajzad, E. Ghasali, Production methods of CNT-reinforced Al matrix composites: a review, Journal of Composites and Compounds 2(1) (2020) 1-9. ## [3] J. Daraei, Production and characterization of PCL (Polycaprolactone) coated TCP/nanoBG composite scaffolds by sponge foam method for orthopedic applications, Journal of Composites and Compounds 2(1) (2020) 45-50. ## [4] Z. Goudarzi, A. Ijadi, A. Bakhtiari, S. Eskandarinezhad, N. Azizabadi, M.A. Jazi, Sr-doped bioactive glasses for biological applications, Journal of Composites and Compounds 2(3) (2020) 105-109. ## [5] H. Ullah, K.A. M Azizli, Z.B. Man, M.B.C. Ismail, M.I. Khan, The Potential of Microencapsulated Self-healing Materials for Microcracks Recovery in Self-healing Composite Systems: A Review, Polymer Reviews 56(3) (2016) 429-485. ## [6] S.O. Omid, Z. Goudarzi, L.M. Kangarshahi, A. Mokhtarzade, F. Bahrami, Self-expanding stents based on shape memory alloys and shape memory polymers, Journal of Composites and Compounds 2(3) (2020) 92-98. ## [7] M. Arefian, M. Hojjati, I. Tajzad, A. Mokhtarzade, M. Mazhar, A. Jamavari, A review of Polyvinyl alcohol/Carboxiy methyl cellulose (PVA/CMC) composites for various applications, Journal of Composites and Compounds 2(3) (2020) 69-76. ## [8] F. Nozahic, D. Monceau, C. Estournès, Thermal cycling and reactivity of a MoSi2/ZrO2 composite designed for self-healing thermal barrier coatings, Materials and Design 94 (2016) 444-448. ## [9] Z. Derelioglu, S. Ponnusami, S. Turteltaub, S. Van der Zwaag, W. Sloof, Healing particles in self-healing thermal barrier coatings, (2013). ## [10] S. Nasibi, K. Alimohammadi, L. Bazli, S. Eskandarinezhad, A. Mohammadi, N. Sheysi, TZNT alloy for surgical implant applications: A systematic review, Journal of Composites and Compounds 2(3) (2020) 62-68. ## [11] M.D. Hager, Self‐healing materials, Handbook of Solid State Chemistry (2017) 201-225. ## [12] K. Zhang, H.W. Jang, Q. Van Le, Production methods of ceramic-reinforced Al-Li matrix composites: A review, Journal of Composites and Compounds 2(3) (2020) 77-84. ## [13] L.-Y. Yu, R.-L. Li, H.-L. Wu, S.-F. Zhang, M.-W. Chai, X.-X. Shen, M. Hong, H. Lin, Selective Removal of Cu2+ Ion in Aqueous Solution by Poly (Acrylic Acid/Acrylamide) Hydrogel, Chinese Journal of Analytical Chemistry 48(8) (2020) e20098-e20106. ## [14] C. Chen, S. Chen, Z. Guo, W. Hu, Z. Chen, J. Wang, J. Hu, J. Guo, L. Yang, Highly efficient self-healing materials with excellent shape memory and unprecedented mechanical properties, Journal of Materials Chemistry A (2020). ## [15] Z.-Y. Wei, B. Cheng, J. Wang, M.-J. Liu, H.-N. Cai, Extend the thermal cyclic lifetime of La2Zr2O7/YSZ DCL TBCs by reducing modulus design on a toughening ceramic surface, Surface and Coatings Technology 374 (2019) 134-143. ## [16] H. Xia, C. Li, H. Chen, Green preparation of CuI particles in dielectric barrier discharge for colorimetric determination of trace mercury in comparison with atomic fluorescence spectrometric determination, Microchemical Journal 146 (2019) 1169-1172. ## [17] A.L. Carabat, M.J. Meijerink, J.C. Brouwer, E.M. Kelder, J.R. van Ommen, S. van der Zwaag, W.G. Sloof, Protecting the MoSi2 healing particles for thermal barrier coatings using a sol-gel produced Al2O3 coating, Journal of the European Ceramic Society 38(7) (2018) 2728-2734. ## [18] M. Belmonte, Advanced Ceramic Materials for High Temperature Applications, Advanced Engineering Materials 8(8) (2006) 693-703. ## [19] F. Cernuschi, P. Bison, A. Moscatelli, Microstructural characterization of porous thermal barrier coatings by laser flash technique, Acta Materialia 57(12) (2009) 3460-3471. ## [20] M. Dietrich, V. Verlotski, R. Vassen, D. Stöver, Metal‐Glass Based Composites for Novel TBC‐Systems, Materialwissenschaft und Werkstofftechnik: Materials Science and Engineering Technology 32(8) (2001) 669-672. ## [21] T. Ouyang, X. Fang, Y. Zhang, D. Liu, Y. Wang, S. Feng, T. Zhou, S. Cai, J. Suo, Enhancement of high temperature oxidation resistance and spallation resistance of SiC-self-healing thermal barrier coatings, Surface and Coatings Technology 286 (2016) 365-375. ## [22] C. Yu, H. Liu, C. Jiang, Z. Bao, S. Zhu, F. Wang, Modification of NiCoCrAlY with Pt: Part II. Application in TBC with pure metastable tetragonal (t′) phase YSZ and thermal cycling behavior, Journal of materials science and technology 35(3) (2019) 350-359. ## [23] G. Pulci, J. Tirillò, F. Marra, F. Sarasini, A. Bellucci, T. Valente, C. Bartuli, High temperature oxidation of MCrAlY coatings modified by Al2O3 PVD overlay, Surface and Coatings Technology 268 (2015) 198-204. ## [24] K.M. Doleker, Y. Ozgurluk, A.C. Karaoglanli, Isothermal oxidation and thermal cyclic behaviors of YSZ and double-layered YSZ/La2Zr2O7 thermal barrier coatings (TBCs), Surface and Coatings Technology 351 (2018) 78-88. ## [25] M. Mohammadi, A. Kobayashi, S. Javadpour, S. Jahromi, Evaluation of hot corrosion behaviors of Al2O3-YSZ composite TBC on gradient MCrAlY coatings in the presence of Na2SO4-NaVO3 salt, Vacuum 167 (2019) 547-553. ## [26] S. Mahade, D. Zhou, N. Curry, N. Markocsan, P. Nylén, R. Vaßen, Tailored microstructures of gadolinium zirconate/YSZ multi-layered thermal barrier coatings produced by suspension plasma spray: Durability and erosion testing, Journal of Materials Processing Technology 264 (2019) 283-294. ## [27] M. Bahamirian, S. Hadavi, M. Farvizi, A. Keyvani, M. Rahimipour, Thermal Durability of YSZ/Nanostructured Gd2Zr2O7 TBC Undergoing Thermal Cycling, Oxidation of Metals 92(5-6) (2019) 401-421. ## [28] J. Wang, J. Sun, Q. Jing, B. Liu, H. Zhang, Y. Yongsheng, J. Yuan, S. Dong, X. Zhou, X. Cao, Phase stability and thermo-physical properties of ZrO2-CeO2-TiO2 ceramics for thermal barrier coatings, Journal of the European Ceramic Society 38(7) (2018) 2841-2850. ## [29] N. Ejaz, L. Ali, A. Ahmad, M. Mansoor, M.M. Asim, A. Rauf, K. Mehmood, Thermo-Physical Properties Measurement of Advanced TBC Materials with Pyrochlore and Perovskite Structures, Key Engineering Materials, Trans Tech Publ, 2018, pp. 236-244. ## [30] A.A. Abubakar, A.F.M. Arif, S.S. Akhtar, Evolution of internal cracks and residual stress during deposition of TBC, Ceramics International (2020). ## [31] A. Ghoshal, M. Murugan, M.J. Walock, A. Nieto, L. Bravo, B. Barnett, M. Pepi, C. Hoffmeister Mock, J. Swab, S. Hirsch, Sandphobic coatings and surface modification of hot section components of next generation VTOL engines: current and future research efforts, 2018 Joint Propulsion Conference, 2018, p. 4831. ## [32] O.P. Golim, N. Prastomo, H. Izzudin, S. Hastuty, R. Sundawa, E. Sugiarti, K.A.Z. Thosin, Synthesis of alumina ceramic encapsulation for self-healing materials on thermal barrier coating, Journal of Physics: Conference Series 985 (2018) 012036. ## [33] L. Lim, S. Meguid, Modeling and characterisation of depletion of aluminium in bond coat and growth of mixed oxides in thermal barrier coatings, International Journal of Mechanics and Materials in Design (2019) 1-17. ## [34] A.H. Pakseresht, Production, Properties, and Applications of High Temperature Coatings, IGI Global2018. ## [35] J. Jiang, L. Jiang, Z. Cai, W. Wang, X. Zhao, Y. Liu, Z. Cao, Numerical stress analysis of the TBC-film cooling system under operating conditions considering the effects of thermal gradient and TGO growth, Surface and Coatings Technology 357 (2019) 433-444. ## [36] R. Takahashi, J. Assis, F.P. Neto, D. Reis, Heat treatment for TGO growth on NiCrAlY for TBC application, Materials Research Express 6(12) (2020) 126442. ## [37] X. Zhang, K. Zhou, M. Liu, C. Deng, C. Deng, J. Mao, Z. Deng, Mechanisms governing the thermal shock and tensile fracture of PS-PVD 7YSZ TBC, Ceramics International 44(4) (2018) 3973-3980. ## [38] J. Kulczyk-Malecka, X. Zhang, J. Carr, F. Nozahic, C. Estournès, D. Monceau, A.L. Carabat, W.G. Sloof, S. van der Zwaag, P.J. Withers, P. Xiao, Thermo – mechanical properties of SPS produced self-healing thermal barrier coatings containing pure and alloyed MoSi2 particles, Journal of the European Ceramic Society 38(12) (2018) 4268-4275. ## [39] J. Mitrić, J. Križan, J. Trajić, G. Križan, M. Romčević, N. Paunović, B. Vasić, N. Romčević, Structural properties of Eu3+ doped Gd2Zr2O7 nanopowders: Far-infrared spectroscopy, Optical Materials 75 (2018) 662-665. ## [40] G. Moskal, A. Jasik, M. Mikuśkiewicz, S. Jucha, Thermal resistance determination of Sm2Zr2O7 + 8YSZ composite type of TBC, Applied Surface Science 515 (2020) 145998. ## [41] M. Gupta, N. Markocsan, X.-H. Li, R.L. Peng, Improving the lifetime of suspension plasma sprayed thermal barrier coatings, Surface and Coatings Technology 332 (2017) 550-559. ## [42] Y. Fukushima, M. Arai, K. Ito, T. Suidzu, Fusion and TBC Penetration Characteristics of Volcanic Ash Collected from Active Volcano, Journal of Thermal Spray Technology (2020) 1-15. ## [43] S. Budinovskii, D. Chubarov, P. Matveev, A. Smirnov, Deposition and Properties of the Ceramic TBC Layer Prepared by Magnetron Sputtering, Russian Metallurgy (Metally) 2019(12) (2019) 1280-1284. ## [44] X. Cao, R. Vassen, W. Fischer, F. Tietz, W. Jungen, D. Stöver, Lanthanum–Cerium Oxide as a Thermal Barrier-Coating Material for High-Temperature Applications, Advanced Materials 15(17) (2003) 1438-1442. ## [45] H. Zhang, J. Zeng, J. Yuan, P. Liang, X. Zhou, S. Chen, S. Duo, S. Dong, J. Jiang, L. Deng, Spray power-governed microstructure and composition, and their effects on properties of lanthanum-cerium-tantalum-oxide thermal barrier coating, Ceramics International (2020). ## [46] Y. Bai, W. Fan, K. Liu, Y. Kang, Y. Gao, F. Ma, Gradient La2Ce2O7/YSZ thermal barrier coatings tailored by synchronous dual powder feeding system, Materials Letters 219 (2018) 55-58. ## [47] R. Vaßen, M.O. Jarligo, T. Steinke, D.E. Mack, D. Stöver, Overview on advanced thermal barrier coatings, Surface and Coatings Technology 205(4) (2010) 938-942. ## [48] G. Moskal, Microstructure and thermal properties of Sm. ## [49] K.M. Doleker, Y. Ozgurluk, H. Ahlatci, A.C. Karaoglanli, Evaluation of oxidation and thermal cyclic behavior of YSZ, Gd2Zr2O7 and YSZ/Gd2Zr2O7 TBCs, Surface and Coatings Technology 371 (2019) 262-275. ## [50] R. Ianoş, P. Barvinschi, Solution combustion synthesis of calcium zirconate, CaZrO3, powders, Journal of solid state chemistry 183(3) (2010) 491-496. ## [51] K. Neufuss, J. Dubsky, P. Rohan, B. Kolman, P. Chraska, L.-M. Berger, R. Zieris, S. Thiele, M. Nebelung, Structure and properties of CaZrO3 coatings prepared by WSP and APS spraying, ITSC 2003: International Thermal Spray Conference 2003: Advancing the Science and Applying the Technology, 2003, pp. 1541-1546. ## [52] M. Pollet, S. Marinel, G. Desgardin, CaZrO3, a Ni-co-sinterable dielectric material for base metal-multilayer ceramic capacitor applications, Journal of the European Ceramic Society 24(1) (2004) 119-127. ## [53] G. Di Girolamo, F. Marra, M. Schioppa, C. Blasi, G. Pulci, T. Valente, Evolution of microstructural and mechanical properties of lanthanum zirconate thermal barrier coatings at high temperature, Surface and Coatings Technology 268 (2015) 298-302. ## [54] L.A. Noveed Ejaz*, Akhlaq Ahmad, Muhammad Mansoor, Muhammad Muneeb Asim, Abdul Rauf, Khalid Mehmood, Thermo-Physical Properties Measurement of Advanced TBC Materials with Pyrochlore and Perovskite Structures, 778 (2018). ## [55] Z. Yang, P. Zhang, W. Pan, Y. Han, M. Huang, H. Chen, Q. Gong, C. Wan, Thermal and oxygen transport properties of complex pyrochlore RE2InTaO7 for thermal barrier coating applications, Journal of the European Ceramic Society (2020). ## [56] H. Xu, H. Guo, Thermal barrier coatings, Elsevier2011. ## [57] H. Lau, Influence of yttria on the cyclic lifetime of YSZ TBC deposited on EB-PVD NiCoCrAlY bondcoats and its contribution to a modified TBC adhesion mechanism, Surface and Coatings Technology 235 (2013) 121-126. ## [58] S. Nouri, S. Sahmani, M. Asayesh, M. Aghdam, Improvement of high-temperature oxidation resistance of γ-TiAl intermetallic alloy by YSZ-NiCoCrAlY coating using APS process, Materials Research Express 6(12) (2019) 126541. ## [59] J. Shi, T. Zhang, B. Sun, B. Wang, X. Zhang, L. Song, Isothermal oxidation and TGO growth behavior of NiCoCrAlY-YSZ thermal barrier coatings on a Ni-based superalloy, Journal of Alloys and Compounds 844 (2020) 156093. ## [60] M. Peters, C. Leyens, U. Schulz, W.A. Kaysser, EB‐PVD thermal barrier coatings for aeroengines and gas turbines, Advanced engineering materials 3(4) (2001) 193-204. ## [61] L.B. Chen, Yttria-stabilized zirconia thermal barrier coatings-a review, Surface Review and Letters 13(05) (2006) 535-544. ## [62] B.R. Lawn, N.P. Padture, H. Cait, F. Guiberteau, Making ceramics" ductile", Science 263(5150) (1994) 1114-1116. ## [63] A.H. Pakseresht, A.H. Javadi, M. Bahrami, F. Khodabakhshi, A. Simchi, Spark plasma sintering of a multilayer thermal barrier coating on Inconel 738 superalloy: Microstructural development and hot corrosion behavior, Ceramics International 42(2, Part A) (2016) 2770-2779. ## [64] F. Nozahic, C. Estournès, A.L. Carabat, W.G. Sloof, S. van der Zwaag, D. Monceau, Self-healing thermal barrier coating systems fabricated by spark plasma sintering, Materials and Design 143 (2018) 204-213. ## [65] S.-J. Park, M.-K. Seo, T.-J. Ma, D.-R. Lee, Effect of chemical treatment of Kevlar fibers on mechanical interfacial properties of composites, Journal of colloid and interface science 252(1) (2002) 249-255. ## [66] A.H. Pakseresht, A.H. Javadi, E. Ghasali, A. Shahbazkhan, S. Shakhesi, Evaluation of hot corrosion behavior of plasma sprayed thermal barrier coatings with graded intermediate layer and double ceramic top layer, Surface and Coatings Technology 288 (2016) 36-45. ## [67] N.P. Padture, M. Gell, E.H. Jordan, Thermal barrier coatings for gas-turbine engine applications, Science 296(5566) (2002) 280-284. ## [68] A. Aygun, A.L. Vasiliev, N.P. Padture, X. Ma, Novel thermal barrier coatings that are resistant to high-temperature attack by glassy deposits, Acta Materialia 55(20) (2007) 6734-6745. ## [69] B. Ercan, K.J. Bowman, R.W. Trice, H. Wang, W. Porter, Effect of initial powder morphology on thermal and mechanical properties of stand-alone plasma-sprayed 7 wt.% Y2O3–ZrO2 coatings, Materials Science and Engineering: A 435 (2006) 212-220. ## [70] L. Xie, D. Chen, E.H. Jordan, A. Ozturk, F. Wu, X. Ma, B.M. Cetegen, M. Gell, Formation of vertical cracks in solution-precursor plasma-sprayed thermal barrier coatings, Surface and Coatings Technology 201(3-4) (2006) 1058-1064. ## [71] G. Shanmugavelayutham, A. Kobayashi, Mechanical properties and oxidation behaviour of plasma sprayed functionally graded zirconia–alumina thermal barrier coatings, Materials chemistry and physics 103(2-3) (2007) 283-289. ## [72] B.-K. Jang, H. Matsubara, Influence of porosity on thermophysical properties of nano-porous zirconia coatings grown by electron beam-physical vapor deposition, Scripta materialia 54(9) (2006) 1655-1659. ## [73] R. Lima, B. Marple, Nanostructured YSZ thermal barrier coatings engineered to counteract sintering effects, Materials Science and Engineering: A 485(1-2) (2008) 182-193. ## [74] H. Chen, X. Zhou, C. Ding, Investigation of the thermomechanical properties of a plasma-sprayed nanostructured zirconia coating, Journal of the European Ceramic Society 23(9) (2003) 1449-1455. ## [75] T. Ouyang, J. Wu, M. Yasir, T. Zhou, X. Fang, Y. Wang, D. Liu, J. Suo, Effect of TiC self-healing coatings on the cyclic oxidation resistance and lifetime of thermal barrier coatings, Journal of Alloys and Compounds 656 (2016) 992-1003. ## [76] W.G. Sloof, Self healing in coatings at high temperatures, Self healing materials, Springer2007, pp. 309-321. ## [77] C. Wang, K. Li, X. Shi, J. Sun, Q. He, C. Huo, Self-healing YSZ-La-Mo-Si heterogeneous coating fabricated by plasma spraying to protect carbon/carbon composites from oxidation, Composites Part B: Engineering 125 (2017) 181-194. ## [78] S.T. Nguyen, T. Nakayama, M. Takeda, N.N. Hieu, T. Takahashi, Development of Yttrium Titanate/Nickel Nanocomposites with Self Crack-Healing Ability and Potential Application as Thermal Barrier Coating Material, MATERIALS TRANSACTIONS (2020) MT-MN2019006. ## [79] Z. Derelioglu, A.L. Carabat, G.M. Song, S.v.d. Zwaag, W.G. Sloof, On the use of B-alloyed MoSi2 particles as crack healing agents in yttria stabilized zirconia thermal barrier coatings, Journal of the European Ceramic Society 35(16) (2015) 4507-4511. ## [80] H.E. Eaton, G.D. Linsey, E.Y. Sun, K.L. More, J.B. Kimmel, J.R. Price, N. Miriyala, EBC protection of SiC/SiC composites in the gas turbine combustion environment: continuing evaluation and refurbishment considerations, Turbo Expo: Power for Land, Sea, and Air, American Society of Mechanical Engineers, 2001, p. V004T02A010. ## [81] S.C. Singhal, Advances in solid oxide fuel cell technology, Solid state ionics 135(1-4) (2000) 305-313. ## [82] M.J. Meijerink, Coating of MoSi2 healing particles for self-healing thermal barrier coatings, Chemical Engineering Materials Science and Engineering (2015). ## [83] R. Dutton, R. Wheeler, K. Ravichandran, K. An, Effect of heat treatment on the thermal conductivity of plasma-sprayed thermal barrier coatings, Journal of Thermal Spray Technology 9(2) (2000) 204-209. ## [84] S. Maria Jose, C.T. Mathew, J. K.Thomas, Fabrication of Dysprosium doped Y2O3 infrared transparent ceramic materials by a microwave sintering technique, Materials Today: Proceedings 24 (2020) 2383-2393. ## [85] M. Pavić-Čolić, Multi-velocity and multi-temperature model of the mixture of polyatomic gases issuing from kinetic theory, Physics Letters A 383(24) (2019) 2829-2835. ## [86] N. Avci, I. Cimieri, P.F. Smet, D. Poelman, Stability improvement of moisture sensitive CaS: Eu2+ micro-particles by coating with sol–gel alumina, Optical Materials 33(7) (2011) 1032-1035. ## [87] J.J. Gibson, Y. Yi, S.J. Birks, Watershed, climate, and stable isotope data (oxygen-18 and deuterium) for 50 boreal lakes in the oil sands region, northeastern Alberta, Canada, 2002–2017, Data in Brief 29 (2020) 105308. ## [88] P. Benda, A. Kalendová, Anticorrosion Properties of Pigments based on Ferrite Coated Zinc Particles, Physics Procedia 44 (2013) 185-194. ## [89] S. Rabadzhiyska, L. Kolaklieva, V. Chitanov, T. Cholakova, R. Kakanakov, N. Dimcheva, K. Balashev, Mechanical, wear and corrosion behavior of CrN/TiN multilayer coatings deposited by low temperature unbalanced magnetron sputtering for biomedical applications, Materials Today: Proceedings 5(8, Part 2) (2018) 16012-16021. ## [90] L.W. Martin, Y.H. Chu, R. Ramesh, Advances in the growth and characterization of magnetic, ferroelectric, and multiferroic oxide thin films, Materials Science and Engineering: R: Reports 68(4) (2010) 89-133. ## [91] R. Mateos, G. Baeza, B. Sarriá, L. Bravo, Improved LC-MSn characterization of hydroxycinnamic acid derivatives and flavonols in different commercial mate (Ilex paraguariensis) brands. Quantification of polyphenols, methylxanthines, and antioxidant activity, Food Chemistry 241 (2018) 232-241. ## [92] M. Tomczyk, A. Mahajan, A. Tkach, P.M. Vilarinho, Interface-based reduced coercivity and leakage currents of BiFeO3 thin films: A comparative study, Materials and Design 160 (2018) 1322-1334. ## [93] S. Bhattacharya, K. Mo, Z. Mei, D. Seidman, B. Stepnik, M.J. Pellin, A.M. Yacout, Improving stability of ALD ZrN thin film coatings over U-Mo dispersion fuel, Applied Surface Science (2020) 147378. ## [94] L. Chen, Yttria-stabilized zirconia thermal barrier coatings—a review, Surface Review and Letters 13(05) (2006) 535-544. ## [95] F. Yao, K. Ando, M.C. Chu, S. Sato, Static and cyclic fatigue behaviour of crack-healed Si3N4/SiC composite ceramics, Journal of the European Ceramic Society 21(7) (2001) 991-997. ## [96] K. Takahashi, M. Yokouchi, S.-K. Lee, K. Ando, Crack-Healing Behavior of Al2O3 Toughened by SiC Whiskers, Journal of the American Ceramic Society 86(12) (2003) 2143-2147. ## [97] M. Chu, S. Sato, Y. Kobayashi, K. Ando, Damage healing and strengthening behaviour in intelligent mullite/SiC ceramics, Fatigue and Fracture of Engineering Materials and Structures 18(9) (1995) 1019-1029. ## [98] W. Sloof, S. Turteltaub, A. Carabat, Z. Derelioglu, S. Ponnusami, G. Song, 219 Crack healing in yttria stabilized zirconia thermal barrier coatings, Self Healing Materials: Pioneering Research in the Netherlands (2015) 219. ## [99] M.E. Smith, Recent progress in solid-state NMR of low-γ nuclei, Annual Reports on NMR Spectroscopy, Academic Press2001, pp. 121-175. ## [100] S.C. Singhal, Advances in solid oxide fuel cell technology, Solid State Ionics 135(1) (2000) 305-313. ## [101] X. Fan, W. Huang, X. Zhou, B. Zou, Preparation and characterization of NiAl–TiC–TiB2 intermetallic matrix composite coatings by atmospheric plasma spraying of SHS powders, Ceramics International (2020). ## [102] A.H. Heuer, Oxygen and aluminum diffusion in α-Al2O3: How much do we really understand?, Journal of the European Ceramic Society 28(7) (2008) 1495-1507. ## [103] Y. Oishi, W.D. Kingery, Self‐Diffusion of Oxygen in Single Crystal and Polycrystalline Aluminum Oxide, The Journal of Chemical Physics 33(2) (1960) 480-486. ## [104] M. MUNRO, Evaluated material properties for a sintered alpha‐alumina, Journal of the American Ceramic Society 80(8) (1997) 1919-1928. ## [105] S. Xie, C. Song, Z. Yu, S. Liu, F. Lapostolle, D. Klein, C. Deng, M. Liu, H. Liao, Effect of environmental pressure on the microstructure of YSZ thermal barrier coating via suspension plasma spraying, Journal of the European Ceramic Society (2020). ## [106] Y. Heng, N. Feng, Y. Liang, D. Hu, Lignin‐retaining porous bamboo‐based reversible thermochromic phase change energy storage composite material, International Journal of Energy Research 44(7) (2020) 5441-5454. ## [107] B. Mazères, C. Desgranges, C. Toffolon-Masclet, D. Monceau, Experimental study and numerical simulation of high temperature (1100–1250°C) oxidation of prior-oxidized zirconium alloy, Corrosion Science 103 (2016) 10-19. ## [108] D. Seo, M. Sayar, K. Ogawa, SiO2 and MoSi2 formation on Inconel 625 surface via SiC coating deposited by cold spray, Surface and Coatings Technology 206(11-12) (2012) 2851-2858. ## [109] Y. Xu, X. Liu, L. Gu, J. Wang, P. Schützendübe, Y. Huang, Y. Liu, Z. Wang, Natural oxidation of amorphous CuxZr1-x alloys, Applied Surface Science 457 (2018) 396-402. ## [110] K.R. Lim, W.T. Kim, E.-S. Lee, S.S. Jee, S.Y. Kim, D.H. Kim, A. Gebert, J. Eckert, Oxidation resistance of the supercooled liquid in Cu50Zr50 and Cu46Zr46Al8 metallic glasses, Journal of Materials Research 27(8) (2012) 1178. ## [111] B. Wang, D. Huang, N. Prud'Homme, Z. Chen, F. Jomard, T. Zhang, V. Ji, Diffusion mechanism of Zr-based metallic glass during oxidation under dry air, Intermetallics 28 (2012) 102-107. ## [112] H. Over, A. Seitsonen, Oxidation of metal surfaces, Science 297(5589) (2002) 2003-2005. ## [113] S. Aygün, S. Klinge, Continuum mechanical modeling of strain-induced crystallization in polymers, International Journal of Solids and Structures 196-197 (2020) 129-139. ## [114] Y. Wang, D. Su, H. Ji, X. Li, Z. Zhao, H. Tang, Gradient structure high emissivity MoSi2-SiO2-SiOC coating for thermal protective application, Journal of Alloys and Compounds 703 (2017) 437-447. ## [115] X. Jing, H.-Y. Mi, X.-F. Peng, L.-S. Turng, Biocompatible, self-healing, highly stretchable polyacrylic acid/reduced graphene oxide nanocomposite hydrogel sensors via mussel-inspired chemistry, Carbon 136 (2018) 63-72. ## [116] T. Ouyang, S. Xiong, Y. Zhang, D. Liu, X. Fang, Y. Wang, S. Feng, T. Zhou, J. Suo, Cyclic oxidation behavior of SiC-containing self-healing TBC systems fabricated by APS, Journal of Alloys and Compounds 691 (2017) 811-821. ## [117] T.N. Son Thanh Nguyen, Masatoshi Takeda, Nguyen Ngoc Hieu, Tsuyoshi Takahashi, Development of Yttrium Titanate/Nickel Nanocomposites with Self Crack-Healing Ability and Potential Application as Thermal Barrier Coating Material, (2020). ## [118] I.I. Kurniadi Isnu, On the in situ encapsulation of MoSi2B healing particles in YSZ TBCs: Self-healing of thermal barrier coatings (TBCs), (2016). ## [119] V. Carnicer Cervera, E. Cañas-Recacha, M.J. Orts Tarí, R. Moreno, M.D. Salvador Moya, P. Carpio Cobo, L. Navarro, E. Sánchez-Vilches, Characterization of thermal barriers coatings of Y-TZP/Al2O3/SiC composite obtained by suspension plasma spraying, (2017). ## [120] B. Xiao, X. Huang, T. Robertson, Z. Tang, R. Kearsey, Sintering resistance of suspension plasma sprayed 7YSZ TBC under isothermal and cyclic oxidation, Journal of the European Ceramic Society 40(5) (2020) 2030-2041. ## [121] F. Nozahic, A.L. Carabat, W. Mao, D. Monceau, C. Estournès, C. Kwakernaak, S. Van Der Zwaag, W.G. Sloof, Kinetics of zircon formation in yttria partially stabilized zirconia as a result of oxidation of embedded molybdenum disilicide, Acta Materialia 174 (2019) 206-216.

1 - Filled FRP–PVC tubular columns for strengthening of concrete in the construction sector: A review https://www.jourcc.com/index.php/jourcc/article/view/jcc237 10.29252/jcc.2.3.7 1 In recent years, fber-reinforced polymer-polyvinyl chloride (FRP-PVC) tubular columns have been used increasingly in civil engineering applications. Concrete-flled RP-PVC tubes possess high durability, high strengthening performance, satisfactory bond strength, and compressive behavior. It has been observed that these cost-effective tubular columns are promising materials for enhancing strain capacities, strength, and stiffness of structures containing reinforced concrete (RC). These composite tubular columns are composed of FRP and PVC and are used for strengthening concrete. FRP enhances strength capacity while PVC improves the corrosion resistance of concrete piles in harsh environments. This review focuses on the properties of FRP-PVC tubular columns, their application in civil engineering, and the recent advancements in this feld. 0 - 155 162 - - Milad Bazli Department of Civil Engineering, Monash University Australia milad.bazli@monash.edu - - Leila Bazli School of Metallurgy and Materials Engineering, Iran University of Science and Technology Iran info@jourcc.com - - Roozbeh Rahmani Department of Civil Engineering, University of Tabriz Iran info@jourcc.com - - Sohail Mansoor Faculty of Engineering, Christian-Albrechts-University Kiel Germany info@jourcc.com - - Mohammad Ahmadi Faculty of Engineering, Christian-Albrechts-University Kiel Germany info@jourcc.com - - Rasul Pouriamanesh Mahshahr Pipe Mill Co. (MPM) Iran info@jourcc.com Reinforced concrete FRP–PVC Tubular columns Strengthening Durability [1] S. Hemavathi, A. Sumil Kumaran, R. Sindhu, An experimental investigation on properties of concrete by using silica fume and glass fibre as admixture, Materials Today: Proceedings 21 (2020) 456-459. ## [2] M. Gunavel, S. Aishwarya, K. Indhumathi, N. Jalapriya, M.K. Priya, Proportioning of Lightweight Concrete by the Inclusion of Expanded Polystyrene (EPS), International Journal of Engineering Research and Technology 9(2) (2020). ## [3] L. Wang, Z. Yang, Y. Cui, B. Wei, S. Xu, J. Sheng, M. Wang, Y. Zhu, W. Fei, Graphene-copper composite with micro-layered grains and ultrahigh strength, Scientific Reports 7(1) (2017) 41896. ## [4] M. Bazli, X.-L. Zhao, R.S. Raman, Y. Bai, S. Al-Saadi, Bond performance between FRP tubes and seawater sea sand concrete after exposure to seawater condition, Construction and Building Materials 265 (2020) 120342. ## [5] S.-F. Jiang, S.-L. Ma, Z.-Q. Wu, Experimental study and theoretical analysis on slender concrete-filled CFRP–PVC tubular columns, Construction and Building Materials 53 (2014) 475-487. ## [6] J. Teng, T. Yu, J. Dai, G. Chen, FRP composites in new construction: current status and opportunities, Proceedings of 7th National Conference on FRP Composites in Infrastructure (Supplementary Issue of Industrial Construction), keynote presentation, Hangzhou, China, 2011. ## [7] M. Bazli, X.-L. Zhao, A. Jafari, H. Ashrafi, Y. Bai, R.S. Raman, H. Khezrzadeh, Mechanical properties of pultruded GFRP profiles under seawater sea sand concrete environment coupled with UV radiation and moisture, Construction and Building Materials (2020) 120369. ## [8] M. Fakharifar, G. Chen, Compressive behavior of FRP-confined concrete-filled PVC tubular columns, Composite Structures 141 (2016) 91-109. ## [9] S. Saadi, B. Nazari, Recent developments and applications of nanocomposites in solar cells: a review, Journal of Composites and Compounds 1(1) (2019) 48-58. ## [10] Z. Yan, C.P. Pantelides, L.D. Reaveley, Posttensioned FRP composite shells for concrete confinement, Journal of Composites for Construction 11(1) (2007) 81-90. ## [11] K.N. Nesheli, K. Meguro, Seismic retrofitting of earthquake-damaged concrete columns by lateral pre-tensioning of FRP belts, Proc., 8th US National Conf. on Earthquake Engineering, Earthquake Engineering Research Institute (EERI) El Cerrito, CA, 2006. ## [12] B. Wang, E.V. Bachtiar, L. Yan, B. Kasal, V. Fiore, Flax, Basalt, E-Glass FRP and Their Hybrid FRP Strengthened Wood Beams: An Experimental Study, Polymers 11(8) (2019) 1255. ## [13] T.C. Rousakis, I.S. Tourtouras, RC columns of square section–passive and active confinement with composite ropes, Composites Part B: Engineering 58 (2014) 573-581. ## [14] M. Shin, B. Andrawes, Experimental investigation of actively confined concrete using shape memory alloys, Engineering Structures 32(3) (2010) 656-664. ## [15] E. Choi, B.-S. Cho, S. Lee, Seismic retrofit of circular RC columns through using tensioned GFRP wires winding, Composites Part B: Engineering 83 (2015) 216-225. ## [16] A.U. Al-saadi, T. Aravinthan, W. Lokuge, Structural applications of fibre reinforced polymer (FRP) composite tubes: A review of columns members, Composite Structures 204 (2018) 513-524. ## [17] M. Arefian, M. Hojjati, I. Tajzad, A. Mokhtarzade, M. Mazhar, A. Jamavari, A review of Polyvinyl alcohol/Carboxiy methyl cellulose (PVA/CMC) composites for various applications, Journal of Composites and Compounds 2(3) (2020) 69-76. ## [18] A. Abuchenari, K. Hardani, S. Abazari, F. Naghdi, M.A. Keleshteri, A. Jamavari, A.M. Chahardehi, Clay-reinforced nanocomposites for the slow release of chemical fertilizers and water retention, Journal of Composites and Compounds 2(3) (2020) 85-91. ## [19] S.O. Omid, Z. Goudarzi, L.M. Kangarshahi, A. Mokhtarzade, F. Bahrami, Self-expanding stents based on shape memory alloys and shape memory polymers, Journal of Composites and Compounds 2(3) (2020) 92-98. ## [20] H.W. Jang, A. Zareidoost, M. Moradi, A. Abuchenari, A. Bakhtiari, R. Pouriamanesh, B. Malekpouri, A.J. Rad, D. Rahban, Photosensitive nanocomposites: environmental and biological applications, Journal of Composites and Compounds 2(1) (2020) 50-60. ## [21] A. Kazemzadeh, H. Kazemzadeh, Determination of Hg2+ by Diphenylcarbazone Compound in Polymer Film, Journal of Composites and Compounds 1(1) (2019) 30-35. ## [22] L. Bazli, M.H. Bagherian, M. Karrabi, F. Abbassi‐Sourki, H. Azizi, Effect of starch ratio and compatibilization on the viscoelastic behavior of POE/starch blends, Journal of Applied Polymer Science 137(29) (2020) 48877. ## [23] P. Abasian, M. Radmansouri, M.H. Jouybari, M.V. Ghasemi, A. Mohammadi, M. Irani, F.S. Jazi, Incorporation of magnetic NaX zeolite/DOX into the PLA/chitosan nanofibers for sustained release of doxorubicin against carcinoma cells death in vitro, International journal of biological macromolecules 121 (2019) 398-406. ## [24] M. Radmansouri, E. Bahmani, E. Sarikhani, K. Rahmani, F. Sharifianjazi, M. Irani, Doxorubicin hydrochloride-Loaded electrospun chitosan/cobalt ferrite/titanium oxide nanofibers for hyperthermic tumor cell treatment and controlled drug release, International journal of biological macromolecules 116 (2018) 378-384. ## [25] B.F. Dizaji, M.H. Azerbaijan, N. Sheisi, P. Goleij, T. Mirmajidi, F. Chogan, M. Irani, F. Sharafian, Synthesis of PLGA/chitosan/zeolites and PLGA/chitosan/metal organic frameworks nanofibers for targeted delivery of Paclitaxel toward prostate cancer cells death, International Journal of Biological Macromolecules (2020). ## [26] L. Bazli, A. Khavandi, M.A. Boutorabi, M. Karrabi, Morphology and viscoelastic behavior of silicone rubber/EPDM/Cloisite 15A nanocomposites based on Maxwell model, Iranian Polymer Journal 25(11) (2016) 907-918. ## [27] L. Bazli, A. Khavandi, M.A. Boutorabi, M. Karrabi, Correlation between viscoelastic behavior and morphology of nanocomposites based on SR/EPDM blends compatibilized by maleic anhydride, Polymer 113 (2017) 156-166. ## [28] A. Kazemzadeh, M.A. Meshkat, H. Kazemzadeh, M. Moradi, R. Bahrami, R. Pouriamanesh, Preparation of graphene nanolayers through surfactant-assisted pure shear milling method, Journal of Composites and Compounds 1(1) (2019) 25-30. ## [29] M. Bazli, X.-L. Zhao, A. Jafari, H. Ashrafi, R.S. Raman, Y. Bai, H. Khezrzadeh, Durability of glass-fibre-reinforced polymer composites under seawater and sea-sand concrete coupled with harsh outdoor environments, Advances in Structural Engineering (2020) 1369433220947897. ## [30] Z. Huang, D. Li, B. Uy, H.-T. Thai, C. Hou, Local and post-local buckling of fabricated high-strength steel and composite columns, Journal of Constructional Steel Research 154 (2019) 235-249. ## [31] D. Li, Z. Huang, B. Uy, H.-T. Thai, C. Hou, Slenderness limits for fabricated S960 ultra-high-strength steel and composite columns, Journal of Constructional Steel Research 159 (2019) 109-121. ## [32] H. Ashrafi, M. Bazli, A.V. Oskouei, Enhancement of bond characteristics of ribbed-surface GFRP bars with concrete by using carbon fiber mat anchorage, Construction and Building Materials 134 (2017) 507-519. ## [33] M. Bazli, H. Ashrafi, A.V. Oskouei, Experiments and probabilistic models of bond strength between GFRP bar and different types of concrete under aggressive environments, Construction and Building Materials 148 (2017) 429-443. ## [34] M. Bazli, Y.L. Li, X.L. Zhao, R.S. Raman, Y. Bai, S. Al-Saadi, A. Haque, Durability of seawater and sea sand concrete filled filament wound FRP tubes under seawater environments, Composites Part B: Engineering (2020) 108409. ## [35] J. Wang, P. Feng, T. Hao, Q. Yue, Axial compressive behavior of seawater coral aggregate concrete-filled FRP tubes, Construction and Building Materials 147 (2017) 272-285. ## [36] M. Bazli, X.-L. Zhao, Y. Bai, R.S. Raman, S. Al-Saadi, A. Haque, Durability of pultruded GFRP tubes subjected to seawater sea sand concrete and seawater environments, Construction and Building Materials 245 (2020) 118399. ## [37] M. Bazli, X.-L. Zhao, Y. Bai, R.S. Raman, S. Al-Saadi, Bond-slip behaviour between FRP tubes and seawater sea sand concrete, Engineering Structures 197 (2019) 109421. ## [38] Y.L. Li, X.L. Zhao, R.K. Raman Singh , S. Al-Saadi, Tests on seawater and sea sand concrete-filled CFRP, BFRP and stainless steel tubular stub columns, Thin-Walled Structures 108 (2016) 163-184. ## [39] Y.L. Li, X.L. Zhao, R.K. Raman Singh , S. Al-Saadi, Experimental study on seawater and sea sand concrete filled GFRP and stainless steel tubular stub columns, Thin-Walled Structures 106 (2016) 390-406. ## [40] G.M. Chen, Z.B. He, T. Jiang, J.F. Chen, J.G. Teng, Axial compression tests on FRP-confined seawater/sea-sand concrete, 6th Asia-Pacific Conference on FRP in Structures, 2017. ## [41] Y.L. Li, J.G. Teng, X.L. Zhao, R.K. Singh Raman, Theoretical model for seawater and sea sand concrete-filled circular FRP tubular stub columns under axial compression, Engineering Structures 160 (2018) 71-84. ## [42] C. Lu, A. Fam, The effect of tube damage on flexural strength of±55° angle-ply concrete-filled FRP tubes, Construction and Building Materials 240 (2020) 117948. ## [43] H. Tian, Z. Zhou, Y. Wei, J. Lu, Behavior and Modeling of Ultra-High Performance Concrete-Filled FRP Tubes Under Cyclic Axial Compression, Journal of Composites for Construction 24(5) (2020) 04020045. ## [44] A.M. Ali, R. Masmoudi, Composite Action Assessment of Concrete-Filled FRP Tubes Subjected to Flexural Cyclic Load, Engineering Structures 203 (2020) 109889. ## [45] H. Lee, H. Jang, W. Chung, Effect of Recycled Concrete on the Flexural Behavior of Concrete-Filled FRP Tubes, International Journal of Concrete Structures and Materials 13(1) (2019) 12. ## [46] A.F. Pour, A. Gholampour, J. Zheng, T. Ozbakkaloglu, Behavior of FRP-confined high-strength concrete under eccentric compression: tests on concrete-filled FRP tube columns, Composite Structures 220 (2019) 261-272. ## [47] Z. Chen, J. Wang, J. Chen, H. GangaRao, R. Liang, W. Liu, Responses of concrete-filled FRP tubular and concrete-filled FRP-steel double skin tubular columns under horizontal impact, Thin-Walled Structures 155 (2020) 106941. ## [48] H. Tian, Z. Zhou, Y. Wei, Y. Wang, J. Lu, Experimental investigation on axial compressive behavior of ultra-high performance concrete (UHPC) filled glass FRP tubes, Construction and Building Materials 225 (2019) 678-691. ## [49] Y. Zhang, Y. Wei, J. Bai, Y. Zhang, Stress-strain model of an FRP-confined concrete filled steel tube under axial compression, Thin-Walled Structures 142 (2019) 149-159. ## [50] Y.-L. Li, X.-L. Zhao, R.S. Raman, Behaviour of seawater and sea sand concrete filled FRP square hollow sections, Thin-Walled Structures 148 (2020) 106596. ## [51] A.M. Ali, R. Masmoudi, Experimental and analytical investigation of new concrete filled FRP tube beam-column connections, Engineering Structures 191 (2019) 311-322. ## [52] Y. Zhang, Y. Wei, J. Bai, G. Wu, Z. Dong, A novel seawater and sea sand concrete filled FRP-carbon steel composite tube column: Concept and behaviour, Composite Structures (2020) 112421. ## [53] P. Xie, G. Lin, J. Teng, T. Jiang, Modelling of concrete-filled filament-wound FRP confining tubes considering nonlinear biaxial tube behavior, Engineering Structures 218 (2020) 110762. ## [54] M.J. Abyaneh, H. El Naggar, P. Sadeghian, Numerical Modeling of the Lateral Behavior of Concrete-Filled FRP Tube Piles in Sand, International Journal of Geomechanics 20(8) (2020) 04020108. ## [55] K. Gonnade, R. Khapre, Experimental and Computational Study on Concrete Filled PVC Plastic Tubes Placed In Columns, Helix 10(01) (2020) 165-169. ## [56] S.M. Askari, A. Khaloo, M.H. Borhani, M.S.T. Masoule, Performance of polypropylene fiber reinforced concrete-filled UPVC tube columns under axial compression, Construction and Building Materials 231 (2020) 117049. ## [57] Ö.B. Ceran, B. Şimşek, T. Uygunoğlu, O.N. Şara, PVC concrete composites: comparative study with other polymer concrete in terms of mechanical, thermal and electrical properties, Journal of Material Cycles and Waste Management 21(4) (2019) 818-828. ## [58] C. Gao, L. Huang, L. Yan, R. Jin, B. Kasal, Strength and ductility improvement of recycled aggregate concrete by polyester FRP-PVC tube confinement, Composites Part B: Engineering 162 (2019) 178-197. ## [59] F. Yu, D. Li, D. Niu, D. Zhu, Z. Kong, N. Zhang, Y. Fang, A model for ultimate bearing capacity of PVC-CFRP confined concrete column with reinforced concrete beam joint under axial compression, Construction and Building Materials 214 (2019) 668-676. ## [60] F. Yu, Z. Song, I. Mansouri, J. Liu, Y. Fang, Experimental study and finite element analysis of PVC-CFRP confined concrete column–Ring beam joint subjected to eccentric compression, Construction and Building Materials 254 (2020) 119081. ## [61] H. Zhang, M.N. Hadi, Geogrid-confined pervious geopolymer concrete piles with FRP-PVC-confined concrete core: Analytical models, Structures, Elsevier, 2020, pp. 731-738. ## [62] F. Yu, N. Zhang, Y. Fang, J. Liu, G. Xiang, Stress-strain model of weak PVC-FRP confined concrete column and strong RC ring beam joint under eccentric compression, Steel and Composite Structures 35(1) (2020) 13-27. ## [63] Y.-C. Guo, S.-H. Xiao, S.-W. Shi, J.-J. Zeng, W.-Q. Wang, H.-C. Zhao, Axial Compressive Behavior of Concrete-Filled FRP-Steel Wire Reinforced Thermoplastics Pipe Hybrid Columns, Composite Structures (2020) 112237. ## [64] Z. Wu, Y. Wu, M.F.M. Fahmy, 6 - FRP strengthening of concrete columns, in: Z. Wu, Y. Wu, M.F.M. Fahmy (Eds.), Structures Strengthened with Bonded Composites, Woodhead Publishing2020, pp. 387-480. ## [65] F.E. Richart, A. Brandtzæg, R.L. Brown, A study of the failure of concrete under combined compressive stresses, University of Illinois at Urbana Champaign, College of Engineering …, 1928. ## [66] Y.M. Amran, R. Alyousef, R.S. Rashid, H. Alabduljabbar, C.-C. Hung, Properties and applications of FRP in strengthening RC structures: A review, Structures, Elsevier, 2018, pp. 208-238. ## [67] M.H. Khaneghahi, E.P. Najafabadi, M. Bazli, A.V. Oskouei, X.-L. Zhao, The effect of elevated temperatures on the compressive section capacity of pultruded GFRP profiles, Construction and Building Materials 249 (2020) 118725. ## [68] H. Ashrafi, M. Bazli, A. Jafari, T. Ozbakkaloglu, Tensile properties of GFRP laminates after exposure to elevated temperatures: Effect of fiber configuration, sample thickness, and time of exposure, Composite Structures 238 (2020) 111971. ## [69] E.P. Najafabadi, M. Bazli, H. Ashrafi, A.V. Oskouei, Effect of applied stress and bar characteristics on the short-term creep behavior of FRP bars, Construction and Building Materials 171 (2018) 960-968. ## [70] A.V. Oskouei, A. Jafari, M. Bazli, R. Ghahri, Effect of different retrofitting techniques on in-plane behavior of masonry wallettes, Construction and Building Materials 169 (2018) 578-590. ## [71] A.V. Oskouei, M.P. Kivi, H. Araghi, M. Bazli, Experimental study of the punching behavior of GFRP reinforced lightweight concrete footing, Materials and Structures 50(6) (2017) 256. ## [72] A. Jafari, A.V. Oskouei, M. Bazli, R. Ghahri, Effect of the FRP sheet's arrays and NSM FRP bars on in-plane behavior of URM walls, Journal of Building Engineering 20 (2018) 679-695. ## [73] M.N.S. Hadi, Q.S. Khan, M.N. Sheikh, Axial and flexural behavior of unreinforced and FRP bar reinforced circular concrete filled FRP tube columns, Construction and Building Materials 122 (2016) 43-53. ## [74] A.D. Mai, M.N. Sheikh, M.N.S. Hadi, Investigation on the behaviour of partial wrapping in comparison with full wrapping of square RC columns under different loading conditions, Construction and Building Materials 168 (2018) 153-168. ## [75] A. Kashi, A.A. Ramezanianpour, F. Moodi, Durability evaluation of retrofitted corroded reinforced concrete columns with FRP sheets in marine environmental conditions, Construction and Building Materials 151 (2017) 520-533. ## [76] A.N. Ababneh, R.Z. Al-Rousan, I.M. Ghaith, Experimental study on anchoring of FRP-strengthened concrete beams, Structures, Elsevier, 2020, pp. 26-33. ## [77] H. Zhang, M.N.S. Hadi, Geogrid-confined pervious geopolymer concrete piles with FRP-PVC-confined concrete core: Analytical models, Structures 23 (2020) 731-738. ## [78] F. Micelli, R. Mazzotta, M. Leone, M.A. Aiello, Review Study on the Durability of FRP-Confined Concrete, Journal of Composites for Construction 19(3) (2015) 04014056. ## [79] H. Zhang, M.N. Hadi, Geogrid-confined pervious geopolymer concrete piles with FRP-PVC-confined concrete core: Concept and behaviour, Construction and Building Materials 211 (2019) 12-25. ## [80] X. Yang, W.-Y. Gao, J.-G. Dai, Z.-D. Lu, Shear strengthening of RC beams with FRP grid-reinforced ECC matrix, Composite Structures (2020) 112120. ## [81] Y. Wang, G. Chen, B. Wan, G. Cai, Y. Zhang, Behavior of circular ice-filled self-luminous FRP tubular stub columns under axial compression, Construction and Building Materials 232 (2020) 117287. ## [82] M. Lindner, K. Vanselow, S. Gelbrich, L. Kroll, Fibre-reinforced polymer stirrup for reinforcing concrete structures. ## [83] M. Tomii, Lateral Load Capacity of Reinforced Concrete Short Columns Confined by Stell Tube-Experimental Results of Preliminary Research, Proceedings of the International Specialty Confernce on Concrete-Filled Steel Tubular Structures (1985) 19-26. ## [84] M. Tomii, K. Sakino, Y. Xiao, K. Watanabe, Earthquake resisting hysteretic behavior of reinforced concrete short columns confined by steel tube, Proceedings of the International Speciality Conference on Concrete Filled Steel Tubular Structures, Harbin, China, 1985, pp. 119-25. ## [85] Y. Xiao, Applications of FRP composites in concrete columns, Advances in Structural Engineering 7(4) (2004) 335-343. ## [86] A. Raza, A. ur Rehman, B. Masood, I. Hussain, Finite element modelling and theoretical predictions of FRP-reinforced concrete columns confined with various FRP-tubes, Structures, Elsevier, 2020, pp. 626-638. ## [87] T. Ozbakkaloglu, T. Vincent, Axial compressive behavior of circular high-strength concrete-filled FRP tubes, Journal of composites for construction 18(2) (2014) 04013037. ## [88] Y.L. Li, X.L. Zhao, R.K. Singh Raman, Mechanical properties of seawater and sea sand concrete-filled FRP tubes in artificial seawater, Construction and Building Materials 191 (2018) 977-993. ## [89] A. Parghi, M.S. Alam, A review on the application of sprayed-FRP composites for strengthening of concrete and masonry structures in the construction sector, Composite Structures 187 (2018) 518-534. ## [90] C.E. Kurt, Concrete filled structural plastic columns, Journal of the Structural Division 104(ASCE 13478 Proceeding) (1978). ## [91] R.K. Watkins, Buried pipe encased in concrete, Pipeline Engineering and Construction: What's on the Horizon?2004, pp. 1-10. ## [92] J. Xue, H. Li, L. Zhai, X. Ke, W. Zheng, B. Men, Analysis on influence parameters and mechanical behaviors of embedded PVC pipe confined with reinforced high-strength concrete columns under cyclic reversed loading, Xi’an University of Arch. and Tech.(natural science edition) 48(1) (2016). ## [93] W.O. Oyawa, N.K. Gathimba, N. Geoffrey, Innovative composite concrete filled plastic tubes in compression, 2015 World Congress on Advances in Structural Engineering and Mechanics (ASEM15), 2015, pp. 1-15. ## [94] J.-Y. Wang, Q.-B. Yang, Investigation on compressive behaviors of thermoplastic pipe confined concrete, Construction and Building Materials 35 (2012) 578-585. ## [95] N.A. Abdulla, Concrete filled PVC tube: A review, Construction and Building Materials 156 (2017) 321-329. ## [96] H. Toutanji, M. Saafi, Durability studies on concrete columns encased in PVC–FRP composite tubes, Composite structures 54(1) (2001) 27-35. ## [97] J. Wang, Q. Yang, Experimental study on mechanical properties of concrete confined with plastic pipe, ACI Materials Journal 107(2) (2010) 132. ## [98] R. Nowack, O.I. Otto, E.W. Braun, 60 Jahre Erfahrungen mit Rohrleitungen aus weichmacherfreiem Polyvinylchlorid (PVC-U), KRV Nachrichten (1995) 1-95. ## [99] P.K. Gupta, V.K. Verma, Study of concrete-filled unplasticized poly-vinyl chloride tubes in marine environment, Proceedings of the Institution of Mechanical Engineers, Part M: Journal of Engineering for the Maritime Environment 230(2) (2016) 229-240. ## [100] I. Jakubowicz, N. Yarahmadi, T. Gevert, Effects of accelerated and natural ageing on plasticized polyvinyl chloride (PVC), Polymer degradation and stability 66(3) (1999) 415-421. ## [101] A.S. Saadoon, Experimental and Theoretical Investigation of PVC Concrete composite Columns, University of Basrah (2010). ## [102] H. Zhang, M.N.S. Hadi, Geogrid-confined pervious geopolymer concrete piles with FRP-PVC-confined concrete core: Concept and behaviour, Construction and Building Materials 211 (2019) 12-25. ## [103] G. Zong, J. Hao, X. Hao, Y. Fang, Y. Song, H. Wang, R. Ou, Q. Wang, Enhancing the flame retardancy and mechanical properties of veneered wood flour/polyvinyl chloride composites, Polymer Composites 41(3) (2020) 848-857. ## [104] H. Toutanji, M. Saafi, Stress-strain behavior of concrete columns confined with hybrid composite materials, Materials and structures 35(6) (2002) 338. ## [105] M. Marzouck, K. Sennah, Concrete-filled PVC tubes as compression members, Composite Materials in Concrete Construction: Proceedings of the International Seminar held at the University of Dundee, Scotland, UK on 5–6 September 2002, Thomas Telford Publishing, 2002, pp. 31-37. ## [106] F. Yu, D. Niu, Stress-strain model of PVC-FRP confined concrete column subjected to axial compression, Academic Journals, 2010. ## [107] Y. Fang, F. Yu, Y. Guan, Z. Wang, C. Feng, D. Li, A model for predicting the stress–strain relation of PVC-CFRP confined concrete stub columns under axial compression, Structures, Elsevier, 2020, pp. 259-270. ## [108] S.-F. Jiang, S.-L. Ma, C.-L. Liang, Z.-Q. Wu, Axial Behavior of CFRP-PVC-Confined Concrete Stubs, Advanced Science Letters 9(1) (2012) 197-203. ## [109] A.M. Mammen, M. Antony, Experimental Study On Frp-Pvc Confined Circular Columns, International Research Journal of Engineering and Technology (IRJET) 4(5) (2017). ## [110] Y. Yu, Z. Wu, H. Guan, Experimental Study On The Axial Compression Of GRP-Concrete-PVC Tube Composite Column, IOP Conference Series: Earth and Environmental Science, IOP Publishing, 2019, p. 042013. ## [111] H. Toutanji, Design equations for concrete columns confined with hybrid composite materials, Advanced Composite Materials 10(2-3) (2001) 127-138. ## [112] A.M. Woldemariam, W.O. Oyawa, T. Nyomboi, The Behavior of Concrete-Filled Single and Double-Skin uPVC Tubular Columns Under Axial Compression Loads, The Open Construction and Building Technology Journal 13(1) (2019). ## [113] F. Hong-bo, Mechanics behavior of FRP-PVC concrete column [j], Low Temperature Architecture Technology 5 (2009). ## [114] Y. Qi-bin, New progress on the study of a new type of hybrid columns based on FRP and PVC [J], Journal of Changchun Institute of Technology (Natural Sciences Edition) 1 (2011). ## [115] M. Fakharifar, G. Chen, FRP-confined concrete filled PVC tubes: A new design concept for ductile column construction in seismic regions, Construction and Building Materials 130 (2017) 1-10. ## [116] F. Yu, G. Xu, D. Niu, A. Cheng, P. Wu, Z. Kong, Experimental study on PVC-CFRP confined concrete columns under low cyclic loading, Construction and Building Materials 177 (2018) 287-302. ## [117] M. Bazli, A. Jafari, H. Ashrafi, X.-L. Zhao, Y. Bai, R.S. Raman, Effects of UV radiation, moisture and elevated temperature on mechanical properties of GFRP pultruded profiles, Construction and Building Materials 231 (2020) 117137. ## [118] M. Bazli, H. Ashrafi, A.V. Oskouei, Effect of harsh environments on mechanical properties of GFRP pultruded profiles, Composites Part B: Engineering 99 (2016) 203-215. ## [119] F. Micelli, A. Nanni, Durability of FRP rods for concrete structures, Construction and Building materials 18(7) (2004) 491-503. ## [120] D. Lau, Q. Qiu, A. Zhou, C.L. Chow, Long term performance and fire safety aspect of FRP composites used in building structures, Construction and building materials 126 (2016) 573-585. ## [121] G. Wu, X. Wang, Z. Wu, Z. Dong, G. Zhang, Durability of basalt fibers and composites in corrosive environments, Journal of Composite Materials 49(7) (2015) 873-887. ## [122] M. Bazli, H. Ashrafi, A. Jafari, X.-L. Zhao, R. Raman, Y. Bai, Effect of fibers configuration and thickness on tensile behavior of GFRP laminates exposed to harsh environment, Polymers 11(9) (2019) 1401. ## [123] H. Ashrafi, M. Bazli, E.P. Najafabadi, A.V. Oskouei, The effect of mechanical and thermal properties of FRP bars on their tensile performance under elevated temperatures, Construction and Building Materials 157 (2017) 1001-1010. ## [124] H. Ashrafi, M. Bazli, A. Vatani Oskouei, L. Bazli, Effect of sequential exposure to UV radiation and water vapor condensation and extreme temperatures on the mechanical properties of GFRP bars, Journal of Composites for Construction 22(1) (2018) 04017047. ## [125] M. Bazli, H. Ashrafi, A. Jafari, X.-L. Zhao, H. Gholipour, A.V. Oskouei, Effect of thickness and reinforcement configuration on flexural and impact behaviour of GFRP laminates after exposure to elevated temperatures, Composites Part B: Engineering 157 (2019) 76-99. ## [126] A.V. Oskouei, M. Bazli, H. Ashrafi, M. Imani, Flexural and web crippling properties of GFRP pultruded profiles subjected to wetting and drying cycles in different sea water conditions, Polymer Testing 69 (2018) 417-430. ## [127] A. Jafari, M. Bazli, H. Ashrafi, A.V. Oskouei, S. Azhari, X.-L. Zhao, H. Gholipour, Effect of fibers configuration and thickness on tensile behavior of GFRP laminates subjected to elevated temperatures, Construction and Building Materials 202 (2019) 189-207. ## [128] M. Bazli, X.L. Zhao, R.S. Raman, Y. Bai, S. Al-Saadi, Bond strength durability between FRP tubes and seawater sea sand concrete under sea water condition, Asia-Pacific Conference on FRP in Structures 2019, APFIS Conference Series, 2019. ## [129] H.A. Toutanji, L. Zhao, G.J. Isaacs, Durability studies on concrete columns confined with advanced fibre composites, International Journal of materials and product technology 28(1-2) (2007) 8-28.##