<?xml version="1.0" encoding="utf-8"?>
<XML>
<ISCJOURNAL>
<YEAR>2022</YEAR>
<VOL>4</VOL>
<NO>10</NO>
<MOSALSAL>10</MOSALSAL>
<PAGE_NO>15</PAGE_NO>
<ARTICLES>

			<ARTICLE>
				<TitleF></TitleF>
				<TitleE>Targeted drug delivery by bone cements</TitleE>
				<TitleLang_ID>en</TitleLang_ID>
				<ABSTRACTS>
					<ABSTRACT>
						<Language_ID>en</Language_ID>
						<CONTENT>Bone cement (BC) is one of the most crucial materials for the substitution of damaged bones. Polymer or ceramic can be used as cement materials. Systemic drug delivery to the bone is difficult since human bone has limited perfusion. BC can carry drugs directly to the bone without causing adverse effects on healthy tissues, so it is a good choice for targeted drug delivery. Growth factors in addition to anti-inflammatory, anticancer, analgesic, and antibiotic reagents are just a few of the medicinal chemicals that may be added into BC for various treatment techniques. Our goal in this review is to introduce diverse BCs, drug loading mechanisms in BCs, and ultimately their clinical applications in dental potentials, inflammation therapy, bone infection, treatment of osteoporosis, coating of implants, and cancer therapy.</CONTENT>
					</ABSTRACT>
				</ABSTRACTS>
				<PAGES>
					<PAGE>
						<FPAGE>59</FPAGE>
						<TPAGE>73</TPAGE>
					</PAGE>
				</PAGES>
	
				<AUTHORS>
					<AUTHOR>
						<NameE>Zahra</NameE>
						<MidNameE></MidNameE>		
						<FamilyE>Kheradmand</FamilyE>
						<Organizations>
							<Organization>Department of Agriculture</Organization>
						</Organizations>
						<Universities>
							<University>Islamic Azad University Maragheh Branch</University>
						</Universities>
						<Countries>
							<Country>Iran</Country>
						</Countries>
						<EMAILS>
							<Email>info@jourcc.com</Email>			
						</EMAILS>
					</AUTHOR>
					<AUTHOR>
						<NameE>Maryam</NameE>
						<MidNameE></MidNameE>		
						<FamilyE>Rabiei</FamilyE>
						<Organizations>
							<Organization>Department of Obstetric and Gynecology</Organization>
						</Organizations>
						<Universities>
							<University>Tehran University of Medical Sciences</University>
						</Universities>
						<Countries>
							<Country>Iran</Country>
						</Countries>
						<EMAILS>
							<Email>info@jourcc.com</Email>			
						</EMAILS>
					</AUTHOR>
					<AUTHOR>
						<NameE>Akram</NameE>
						<MidNameE></MidNameE>		
						<FamilyE>Noori Tahneh</FamilyE>
						<Organizations>
							<Organization>Department of Pharmaceutical Chemistry</Organization>
						</Organizations>
						<Universities>
							<University>Islamic Azad University Pharmaceutical Science Branch</University>
						</Universities>
						<Countries>
							<Country>Iran</Country>
						</Countries>
						<EMAILS>
							<Email>info@jourcc.com</Email>			
						</EMAILS>
					</AUTHOR>
					<AUTHOR>
						<NameE>Elham</NameE>
						<MidNameE></MidNameE>		
						<FamilyE>Shirali</FamilyE>
						<Organizations>
							<Organization>School of Medicine</Organization>
						</Organizations>
						<Universities>
							<University>Tehran University of Medical Sciences</University>
						</Universities>
						<Countries>
							<Country>Iran</Country>
						</Countries>
						<EMAILS>
							<Email>info@jourcc.com</Email>			
						</EMAILS>
					</AUTHOR>
					<AUTHOR>
						<NameE>Morteza</NameE>
						<MidNameE></MidNameE>		
						<FamilyE>Abedi</FamilyE>
						<Organizations>
							<Organization>Department of Medicine Science</Organization>
						</Organizations>
						<Universities>
							<University>Bojnurd University</University>
						</Universities>
						<Countries>
							<Country>Iran</Country>
						</Countries>
						<EMAILS>
							<Email>info@jourcc.com</Email>			
						</EMAILS>
					</AUTHOR>
					<AUTHOR>
						<NameE>Bahareh</NameE>
						<MidNameE></MidNameE>		
						<FamilyE>Dashtipour</FamilyE>
						<Organizations>
							<Organization>Department of Chemistry</Organization>
						</Organizations>
						<Universities>
							<University>Alzahra University</University>
						</Universities>
						<Countries>
							<Country>Iran</Country>
						</Countries>
						<EMAILS>
							<Email>b.dashtipour@alzahra.ac.ir</Email>			
						</EMAILS>
					</AUTHOR>
					<AUTHOR>
						<NameE>Elham</NameE>
						<MidNameE></MidNameE>		
						<FamilyE>Barati</FamilyE>
						<Organizations>
							<Organization>School of Medicine</Organization>
						</Organizations>
						<Universities>
							<University>Shahid Beheshti University of Medical Sciences</University>
						</Universities>
						<Countries>
							<Country>Iran</Country>
						</Countries>
						<EMAILS>
							<Email>info@jourcc.com</Email>			
						</EMAILS>
					</AUTHOR>
				</AUTHORS>
				<KEYWORDS>
					<KEYWORD>
						<KeyText>Targeted delivery</KeyText>
					</KEYWORD>
					<KEYWORD>
						<KeyText>Bone cement</KeyText>
					</KEYWORD>
					<KEYWORD>
						<KeyText>Anti-infection</KeyText>
					</KEYWORD>
					<KEYWORD>
						<KeyText>Coating</KeyText>
					</KEYWORD>
					<KEYWORD>
						<KeyText>Cancer therapy</KeyText>
					</KEYWORD>
					<KEYWORD>
						<KeyText>Dental application</KeyText>
					</KEYWORD>
					</KEYWORDS>
				<PDFFileName>Article7.pdf</PDFFileName>
				<REFRENCES>
				<REFRENCE>
					<REF>[1] H. Cheng, A. Chawla, Y. Yang, Y. Li, J. Zhang, H.L. Jang, A. Khademhosseini, Development of nanomaterials for bone-targeted drug delivery, Drug Discovery Today 22(9) (2017) 1336-1350. ## [2] S. Bose, S. Tarafder, Calcium phosphate ceramic systems in growth factor and drug delivery for bone tissue engineering: a review, Acta biomaterialia 8(4) (2012) 1401-1421. ## [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(2) (2020) 44-49. ## [4] A. Bakhtiari, A. Cheshmi, M. Naeimi, S.M. Fathabad, M. Aliasghari, A.M. Chahardehi, S. Hassani, V. Elhami, Synthesis and characterization of the novel 80S bioactive glass: bioactivity, biocompatibility, cytotoxicity, Journal of Composites and Compounds 2(4) (2020) 110-114. ## [5] U. BLS, Nonfatal occupational injuries and illnesses requiring days away from work, 2011, 11/08/2012, 2012. ## [6] K. Davis, K. Dunning, G. Jewell, J.J.O.m. Lockey, Cost and disability trends of work-related musculoskeletal disorders in Ohio, 64(8) (2014) 608-615. ## [7] J.C. Reichert, S. Saifzadeh, M.E. Wullschleger, D.R. Epari, M.A. Schütz, G.N. Duda, H. Schell, M. van Griensven, H. Redl, D.W. Hutmacher, The challenge of establishing preclinical models for segmental bone defect research, Biomaterials 30(12) (2009) 2149-2163. ## [8] M. Bongio, J.J. Van Den Beucken, S.C. Leeuwenburgh, J.A. Jansen, Development of bone substitute materials: from ‘biocompatible’to ‘instructive’, Journal of Materials Chemistry 20(40) (2010) 8747-8759. ## [9] W.N. Ayre, J.C. Birchall, S.L. Evans, S.P. Denyer, A novel liposomal drug delivery system for PMMA bone cements, Journal of Biomedical Materials Research Part B: Applied Biomaterials 104(8) (2016) 1510-1524. ## [10] J.C. Middleton, A.J. Tipton, Synthetic biodegradable polymers as orthopedic devices, Biomaterials 21(23) (2000) 2335-2346. ## [11] M. Kellomäki, H. Niiranen, K. Puumanen, N. Ashammakhi, T. Waris, P. Törmälä, Bioabsorbable scaffolds for guided bone regeneration and generation, Biomaterials 21(24) (2000) 2495-2505. ## [12] P. Honkanen, M. Kellomäki, M. Lehtimäki, P. Törmälä, S. Mäkelä, M. Lehto, Bioreconstructive joint scaffold implant arthroplasty in metacarpophalangeal joints: short-term results of a new treatment concept in rheumatoid arthritis patients, Tissue engineering 9(5) (2003) 957-965. ## [13] Y. Liu, G. Wu, K. de Groot, Biomimetic coatings for bone tissue engineering of critical-sized defects, Journal of the Royal Society Interface 7(suppl_5) (2010) S631-S647. ## [14] J.P. Schmitz, J.O. Hollinger, The critical size defect as an experimental model for craniomandibulofacial nonunions, Clinical orthopaedics and related research (205) (1986) 299-308. ## [15] F.J. O’brien, Biomaterials and scaffolds for tissue engineering, Materials today 14(3) (2011) 88-95. ## [16] Y. Wang, M.R. Newman, D.S. Benoit, Development of controlled drug delivery systems for bone fracture-targeted therapeutic delivery: A review, European Journal of Pharmaceutics and Biopharmaceutics 127 (2018) 223-236. ## [17] B. Basu, S. Ghosh, Biomaterials for musculoskeletal regeneration, Springer2017. ## [18] 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. ## [19] A. Sugawara, K. Asaoka, S.-J. Ding, Calcium phosphate-based cements: clinical needs and recent progress, Journal of Materials Chemistry B 1(8) (2013) 1081-1089. ## [20] M. Bohner, L. Galea, N. Doebelin, Calcium phosphate bone graft substitutes: Failures and hopes, Journal of the european ceramic society 32(11) (2012) 2663-2671. ## [21] M. Bohner, Design of ceramic-based cements and putties for bone graft substitution, Eur Cell Mater 20(1) (2010) 3-10. ## [22] G. Radha, S. Balakumar, B. Venkatesan, E. Vellaichamy, A novel nano-hydroxyapatite—PMMA hybrid scaffolds adopted by conjugated thermal induced phase separation (TIPS) and wet-chemical approach: Analysis of its mechanical and biological properties, Materials Science and Engineering: C 75 (2017) 221-228. ## [23] R. Vaishya, M. Chauhan, A. Vaish, Bone cement, Journal of clinical orthopaedics and trauma 4(4) (2013) 157-163. ## [24] C.J. Curatolo, M.R. Anderson, Bone cement implantation syndrome, Decision-Making in Orthopedic and Regional Anesthesiology: A Case-Based Approach  (2015) 118-122. ## [25] M.-P. Ginebra, E.B. Montufar, Cements as bone repair materials, Bone repair biomaterials, Elsevier2019, pp. 233-271. ## [26] M. Wekwejt, N. Moritz, B. Świeczko-Żurek, A. Pałubicka, Biomechanical testing of bioactive bone cements–a comparison of the impact of modifiers: antibiotics and nanometals, Polymer Testing 70 (2018) 234-243. ## [27] A. Tiselius, S. Hjerten, Ö. Levin, Protein chromatography on calcium phosphate columns, Archives of biochemistry and biophysics 65(1) (1956) 132-155. ## [28] R.N. Azadani, M. Sabbagh, H. Salehi, A. Cheshmi, A. Raza, B. Kumari, G. Erabi, Sol-gel: Uncomplicated, routine and affordable synthesis procedure for utilization of composites in drug delivery, Journal of Composites and Compounds 3(6) (2021) 57-70. ## [29] F. Niazvand, A. Cheshmi, M. Zand, R. NasrAzadani, B. Kumari, A. Raza, S. Nasibi, An overview of the development of composites containing Mg and Zn for drug delivery, Journal of Composites and Compounds 2(5) (2020) 193-204. ## [30] 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. ## [31] M. Otsuka, Y. Matsuda, Y. Suwa, J.L. Fox, W.I. Higuchi, A novel skeletal drug delivery system using a self‐setting calcium phosphate cement. 5. Drug release behavior from a heterogeneous drug‐loaded cement containing an anticancer drug, Journal of pharmaceutical sciences 83(11) (1994) 1565-1568. ## [32] W.F. Mousa, M. Kobayashi, S. Shinzato, M. Kamimura, M. Neo, S. Yoshihara, T. Nakamura, Biological and mechanical properties of PMMA-based bioactive bone cements, Biomaterials 21(21) (2000) 2137-2146. ## [33] R.Q. Frazer, R.T. Byron, P.B. Osborne, K.P. West, PMMA: an essential material in medicine and dentistry, Journal of long-term effects of medical implants 15(6) (2005). ## [34] S. Deb, Orthopaedic bone cements, Elsevier2008. ## [35] A. Masoudian, M. Karbasi, F. SharifianJazi, A. Saidi, Developing Al2O3-TiC in-situ nanocomposite by SHS and analyzingtheeffects of Al content and mechanical activation on microstructure, Journal of Ceramic Processing Research 14(4) (2013) 486-491. ## [36] V. Balouchi, F.S. Jazi, A. Saidi, Developing (W, Ti) C-(Ni, Co) nanocomposite by SHS method, Journal of Ceramic Processing Research 16(5) (2015) 605-608. ## [37] A. Boger, M. Bohner, P. Heini, S. Verrier, E. Schneider, Properties of an injectable low modulus PMMA bone cement for osteoporotic bone, Journal of Biomedical Materials Research Part B: Applied Biomaterials: An Official Journal of The Society for Biomaterials, The Japanese Society for Biomaterials, and The Australian Society for Biomaterials and the Korean Society for Biomaterials 86(2) (2008) 474-482. ## [38] E. Ooms, J. Wolke, M. Van de Heuvel, B. Jeschke, J. Jansen, Histological evaluation of the bone response to calcium phosphate cement implanted in cortical bone, Biomaterials 24(6) (2003) 989-1000. ## [39] D. Limb, D. Shaw, R. Dickson, Neurological injury in thoracolumbar burst fractures, The Journal of Bone and Joint Surgery. British volume 77(5) (1995) 774-777. ## [40] J. Wishart, A. Need, M. Horowitz, H. Morris, B. Nordin, Effect of age on bone density and bone turnover in men, Clinical endocrinology 42(2) (1995) 141-146. ## [41] E.A. Glasspoole, R.L. Erickson, C.L. Davidson, Effect of surface treatments on the bond strength of glass ionomers to enamel, Dental materials 18(6) (2002) 454-462. ## [42] P. HUNT, Glass ionomers: The next generation a summary of the current situation, Journal of Esthetic and Restorative Dentistry 6(5) (1994) 192-194. ## [43] G.J. Mount, Buonocore Memorial Lecture. Glass-ionomer cements: past, present and future, Operative Dentistry 19(3) (1994) 82-90. ## [44] A. Wiegand, W. Buchalla, T. Attin, Review on fluoride-releasing restorative materials—fluoride release and uptake characteristics, antibacterial activity and influence on caries formation, Dental materials 23(3) (2007) 343-362. ## [45] M. Naasan, T. Watson, Conventional glass ionomers as posterior restorations. A status report for the American Journal of Dentistry, American Journal of Dentistry 11(1) (1998) 36-45. ## [46] H.H. Xu, P. Wang, L. Wang, C. Bao, Q. Chen, M.D. Weir, L.C. Chow, L. Zhao, X. Zhou, M.A. Reynolds, Calcium phosphate cements for bone engineering and their biological properties, Bone research 5(1) (2017) 1-19. ## [47] M. Fathi, A. Kholtei, S.E. Youbi, B.C. El Idrissi, Setting properties of calcium phosphate bone cement, Materials Today: Proceedings 13 (2019) 876-881. ## [48] F. Sharifianjazi, A. Esmaeilkhanian, L. Bazli, S. Eskandarinezhad, S. Khaksar, P. Shafiee, M. Yusuf, B. Abdullah, P. Salahshour, F. Sadeghi, A review on recent advances in dry reforming of methane over Ni-and Co-based nanocatalysts, International Journal of Hydrogen Energy  (2021). ## [49] Y. Lee, J. Kwon, G. Khang, D. Lee, Reduction of inflammatory responses and enhancement of extracellular matrix formation by vanillin-incorporated poly (lactic-co-glycolic acid) scaffolds, Tissue Engineering Part A 18(19-20) (2012) 1967-1978. ## [50] F. Van de Watering, J. van den Beucken, R. Lanao, J. Wolke, J. Jansen, Biodegradation of calcium phosphate cement composites, Degradation of Implant materials, Springer2012, pp. 139-172. ## [51] M. Geffers, J.E. Barralet, J. Groll, U. Gbureck, Dual-setting brushite–silica gel cements, Acta biomaterialia 11 (2015) 467-476. ## [52] T. Sopcak, L. Medvecky, M. Giretova, R. Stulajterova, J. Durisin, V. Girman, M. Faberova, Effect of phase composition of calcium silicate phosphate component on properties of brushite based composite cements, Materials Characterization 117 (2016) 17-29. ## [53] H.H. Xu, E.F. Burguera, L.E. Carey, Strong, macroporous, and in situ-setting calcium phosphate cement-layered structures, Biomaterials 28(26) (2007) 3786-3796. ## [54] K. Ishikawa, Y. Miyamoto, M. Kon, M. Nagayama, K. Asaoka, Non-decay type fast-setting calcium phosphate cement: composite with sodium alginate, Biomaterials 16(7) (1995) 527-532. ## [55] H. Li, J. Li, J. Ye, Construction and properties of poly (lactic-co-glycolic acid)/calcium phosphate cement composite pellets with microspheres-in-pellet structure for bone repair, Ceramics International 42(4) (2016) 5587-5592. ## [56] R.A. Perez, H.-W. Kim, M.-P. Ginebra, Polymeric additives to enhance the functional properties of calcium phosphate cements, Journal of tissue engineering 3(1) (2012) 2041731412439555. ## [57] M.-P. Ginebra, C. Canal, M. Espanol, D. Pastorino, E.B. Montufar, Calcium phosphate cements as drug delivery materials, Advanced drug delivery reviews 64(12) (2012) 1090-1110. ## [58] E. Verron, I. Khairoun, J. Guicheux, J.-M. Bouler, Calcium phosphate biomaterials as bone drug delivery systems: a review, Drug discovery today 15(13-14) (2010) 547-552. ## [59] N. Li, C. Jiang, X. Zhang, X. Gu, J. Zhang, Y. Yuan, C. Liu, J. Shi, J. Wang, Y. Li, Preparation of an rhBMP-2 loaded mesoporous bioactive glass/calcium phosphate cement porous composite scaffold for rapid bone tissue regeneration, Journal of Materials Chemistry B 3(43) (2015) 8558-8566. ## [60] E. Vorndran, M. Geffers, A. Ewald, M. Lemm, B. Nies, U. Gbureck, Ready-to-use injectable calcium phosphate bone cement paste as drug carrier, Acta biomaterialia 9(12) (2013) 9558-9567. ## [61] D. Loca, M. Sokolova, J. Locs, A. Smirnova, Z. Irbe, Calcium phosphate bone cements for local vancomycin delivery, Materials Science and Engineering: C 49 (2015) 106-113. ## [62] A. Roy, S. Jhunjhunwala, E. Bayer, M. Fedorchak, S.R. Little, P.N. Kumta, Porous calcium phosphate-poly (lactic-co-glycolic) acid composite bone cement: a viable tunable drug delivery system, Materials Science and Engineering: C 59 (2016) 92-101. ## [63] M. Espanol, R. Perez, E. Montufar, C. Marichal, A. Sacco, M. Ginebra, Intrinsic porosity of calcium phosphate cements and its significance for drug delivery and tissue engineering applications, Acta Biomaterialia 5(7) (2009) 2752-2762. ## [64] M.-P. Ginebra, M. Espanol, E.B. Montufar, R.A. Perez, G. Mestres, New processing approaches in calcium phosphate cements and their applications in regenerative medicine, Acta biomaterialia 6(8) (2010) 2863-2873. ## [65] M. Bohner, U. Gbureck, J. Barralet, Technological issues for the development of more efficient calcium phosphate bone cements: a critical assessment, Biomaterials 26(33) (2005) 6423-6429. ## [66] J.E. Barralet, M. Tremayne, K.J. Lilley, U. Gbureck, Modification of calcium phosphate cement with α-hydroxy acids and their salts, Chemistry of Materials 17(6) (2005) 1313-1319. ## [67] S. Sarda, E. Fernández, M. Nilsson, M. Balcells, J. Planell, Kinetic study of citric acid influence on calcium phosphate bone cements as water‐reducing agent, Journal of Biomedical Materials Research: An Official Journal of The Society for Biomaterials, The Japanese Society for Biomaterials, and The Australian Society for Biomaterials and the Korean Society for Biomaterials 61(4) (2002) 653-659. ## [68] S. Tanaka, T. Kishi, R. Shimogoryo, S. Matsuya, K. Ishikawa, Biopex® acquires anti-washout properties by adding sodium alginate into its liquid phase, Dental materials journal 22(3) (2003) 301-312. ## [69] F. Tamimi-Mariño, J. Mastio, C. Rueda, L. Blanco, E. López-Cabarcos, Increase of the final setting time of brushite cements by using chondroitin 4-sulfate and silica gel, Journal of materials Science: Materials in medicine 18(6) (2007) 1195-1201. ## [70] A. Bigi, B. Bracci, S. Panzavolta, Effect of added gelatin on the properties of calcium phosphate cement, Biomaterials 25(14) (2004) 2893-2899. ## [71] E.B. Montufar, T. Traykova, J.A. Planell, M.-P. Ginebra, Comparison of a low molecular weight and a macromolecular surfactant as foaming agents for injectable self setting hydroxyapatite foams: Polysorbate 80 versus gelatine, Materials Science and Engineering: C 31(7) (2011) 1498-1504. ## [72] D. Kai, D. Li, X. Zhu, L. Zhang, H. Fan, X. Zhang, Addition of sodium hyaluronate and the effect on performance of the injectable calcium phosphate cement, Journal of Materials Science: Materials in Medicine 20(8) (2009) 1595-1602. ## [73] M. Alkhraisat, C. Rueda, F. Marino, J. Torres, L. Jerez, U. Gbureck, E. Cabarcos, The effect of hyaluronic acid on brushite cement cohesion, Acta biomaterialia 5(8) (2009) 3150-3156. ## [74] L. Dos Santos, L. De Oliveira, E. Rigo, R. Carrodeguas, A. Boschi, A. De Arruda, Influence of polymeric additives on the mechanical properties of α-tricalcium phosphate cement, Bone 25(2) (1999) 99S-102S. ## [75] H. Xu, J. Quinn, S. Takagi, L.C. Chow, Processing and properties of strong and non-rigid calcium phosphate cement, Journal of dental research 81(3) (2002) 219-224. ## [76] M. Bohner, Reactivity of calcium phosphate cements, Journal of Materials Chemistry 17(38) (2007) 3980-3986. ## [77] Z. He, Q. Zhai, M. Hu, C. Cao, J. Wang, H. Yang, B. Li, Bone cements for percutaneous vertebroplasty and balloon kyphoplasty: current status and future developments, Journal of orthopaedic translation 3(1) (2015) 1-11. ## [78] S. Soleymani Eil Bakhtiari, H.R. Bakhsheshi-Rad, S. Karbasi, M. Tavakoli, M. Razzaghi, A.F. Ismail, S. RamaKrishna, F. Berto, Polymethyl methacrylate-based bone cements containing carbon nanotubes and graphene oxide: An overview of physical, mechanical, and biological properties, Polymers 12(7) (2020) 1469. ## [79] L. Wang, D.M. Yoon, P.P. Spicer, A.M. Henslee, D.W. Scott, M.E. Wong, F.K. Kasper, A.G. Mikos, Characterization of porous polymethylmethacrylate space maintainers for craniofacial reconstruction, Journal of Biomedical Materials Research Part B: Applied Biomaterials 101(5) (2013) 813-825. ## [80] G. Lewis, Alternative acrylic bone cement formulations for cemented arthroplasties: present status, key issues, and future prospects, Journal of Biomedical Materials Research Part B: Applied Biomaterials: An Official Journal of The Society for Biomaterials, The Japanese Society for Biomaterials, and The Australian Society for Biomaterials and the Korean Society for Biomaterials 84(2) (2008) 301-319. ## [81] G. Baroud, C. Vant, D. Giannitsios, M. Bohner, T. Steffen, Effect of vertebral shell on injection pressure and intravertebral pressure in vertebroplasty, Spine 30(1) (2005) 68-74. ## [82] R. Bornemann, Y. Rommelspacher, T.R. Jansen, K. Sander, D.C. Wirtz, R. Pflugmacher, Elastoplasty: a silicon polymer as a new filling material for kyphoplasty in comparison to PMMA, Pain Physician 19(6) (2016) E885-92. ## [83] P.-L. Lai, L.H. Chen, W.J. Chen, I.M. Chu, Chemical and physical properties of bone cement for vertebroplasty, Biomed J 36(4) (2013) 162-167. ## [84] O. Eden, A. Lee, R. Hooper, Stress relaxation modelling of polymethylmethacrylate bone cement, Proceedings of the Institution of Mechanical Engineers, Part H: Journal of Engineering in Medicine 216(3) (2002) 195-199. ## [85] J. Webb, R. Spencer, The role of polymethylmethacrylate bone cement in modern orthopaedic surgery, The Journal of bone and joint surgery. British volume 89(7) (2007) 851-857. ## [86] D. Çökeliler, S. Erkut, J. Zemek, H. Biederman, M. Mutlu, Modification of glass fibers to improve reinforcement: a plasma polymerization technique, Dental materials 23(3) (2007) 335-342. ## [87] G. Lazouzi, M.M. Vuksanović, N.Z. Tomić, M. Mitrić, M. Petrović, V. Radojević, R.J. Heinemann, Optimized preparation of alumina based fillers for tuning composite properties, Ceramics International 44(7) (2018) 7442-7449. ## [88] H.-J. Jiang, J. Xu, Z.-Y. Qiu, X.-L. Ma, Z.-Q. Zhang, X.-X. Tan, Y. Cui, F.-Z. Cui, Mechanical properties and cytocompatibility improvement of vertebroplasty PMMA bone cements by incorporating mineralized collagen, Materials 8(5) (2015) 2616-2634. ## [89] M. Arora, E.K. Chan, S. Gupta, A.D. Diwan, Polymethylmethacrylate bone cements and additives: A review of the literature, World journal of orthopedics 4(2) (2013) 67. ## [90] J. Han, G. Ma, J. Nie, A facile fabrication of porous PMMA as a potential bone substitute, Materials Science and Engineering: C 31(7) (2011) 1278-1284. ## [91] S.B. Kim, Y.J. Kim, T.L. Yoon, S.A. Park, I.H. Cho, E.J. Kim, I.A. Kim, J.-W. Shin, The characteristics of a hydroxyapatite–chitosan–PMMA bone cement, Biomaterials 25(26) (2004) 5715-5723. ## [92] A.H. Saleh, D. Kumar, I. Sirakov, P. Shafiee, M. Arefian, Application of nano compounds for the prevention, diagnosis, and treatment of SARS-coronavirus: A review, Journal of Composites and Compounds 3(9) (2021) 230-246 DOI: 10.52547/jcc.3.4.4. ## [93] S. Aghyarian, E. Bentley, T.N. Hoang, I.M. Gindri, V. Kosmopoulos, H.K. Kim, D. C. Rodrigues, In vitro and in vivo characterization of premixed PMMA-CaP composite bone cements, ACS Biomaterials Science and Engineering 3(10) (2017) 2267-2277. ## [94] A. Sugino, T. Miyazaki, G. Kawachi, K. Kikuta, C. Ohtsuki, Relationship between apatite-forming ability and mechanical properties of bioactive PMMA-based bone cement modified with calcium salts and alkoxysilane, Journal of Materials Science: Materials in Medicine 19(3) (2008) 1399-1405. ## [95] Z. Shi, K. Neoh, E. Kang, W. Wang, Antibacterial and mechanical properties of bone cement impregnated with chitosan nanoparticles, Biomaterials 27(11) (2006) 2440-2449. ## [96] A. De Mori, E. Di Gregorio, A.P. Kao, G. Tozzi, E. Barbu, A. Sanghani-Kerai, R.R. Draheim, M. Roldo, Antibacterial PMMA composite cements with tunable thermal and mechanical properties, ACS omega 4(22) (2019) 19664-19675. ## [97] F. Pahlevanzadeh, H. Bakhsheshi-Rad, E. Hamzah, In-vitro biocompatibility, bioactivity, and mechanical strength of PMMA-PCL polymer containing fluorapatite and graphene oxide bone cements, Journal of the mechanical behavior of biomedical materials 82 (2018) 257-267. ## [98] R. Kowalski, R. Schmaehling, Commercial aspects and delivery systems of bone cements, Orthopaedic bone cements, Elsevier2008, pp. 113-139. ## [99] L.F. Boesel, S.C. Cachinho, M.H. Fernandes, R.L. Reis, The in vitro bioactivity of two novel hydrophilic, partially degradable bone cements, Acta biomaterialia 3(2) (2007) 175-182. ## [100] A.A. Khan, E.H. Mirza, B.A. Mohamed, N.H. Alharthi, H.S. Abdo, R. Javed, R.S. Alhur, P.K. Vallittu, Physical, mechanical, chemical and thermal properties of nanoscale graphene oxide-poly methylmethacrylate composites, Journal of Composite Materials 52(20) (2018) 2803-2813. ## [101] C. Wolf‐Brandstetter, S. Roessler, S. Storch, U. Hempel, U. Gbureck, B. Nies, S. Bierbaum, D. Scharnweber, Physicochemical and cell biological characterization of PMMA bone cements modified with additives to increase bioactivity, Journal of Biomedical Materials Research Part B: Applied Biomaterials 101(4) (2013) 599-609. ## [102] M. Khandaker, Y. Li, T. Morris, Micro and nano MgO particles for the improvement of fracture toughness of bone–cement interfaces, journal of biomechanics 46(5) (2013) 1035-1039. ## [103] H. Tan, S. Guo, S. Yang, X. Xu, T. Tang, Physical characterization and osteogenic activity of the quaternized chitosan-loaded PMMA bone cement, Acta biomaterialia 8(6) (2012) 2166-2174. ## [104] B. Cimatti, M.A.d. Santos, M.S. Brassesco, L.T. Okano, W.M. Barboza, M.H. Nogueira‐Barbosa, E.E. Engel, Safety, osseointegration, and bone ingrowth analysis of PMMA‐based porous cement on animal metaphyseal bone defect model, Journal of Biomedical Materials Research Part B: Applied Biomaterials 106(2) (2018) 649-658. ## [105] S. Soleymani Eil Bakhtiari, H.R. Bakhsheshi‐Rad, S. Karbasi, M. Tavakoli, S.A. Hassanzadeh Tabrizi, A.F. Ismail, A. Seifalian, S. RamaKrishna, F. Berto, Poly (methyl methacrylate) bone cement, its rise, growth, downfall and future, Polymer International 70(9) (2021) 1182-1201. ## [106] L. Chen, Y. Tang, K. Zhao, X. Zha, J. Liu, H. Bai, Z. Wu, Fabrication of the antibiotic-releasing gelatin/PMMA bone cement, Colloids and Surfaces B: Biointerfaces 183 (2019) 110448. ## [107] E.L. Cyphert, C.-y. Lu, D.W. Marques, G.D. Learn, H.A. von Recum, Combination antibiotic delivery in PMMA provides sustained broad-spectrum antimicrobial activity and allows for postimplantation refilling, Biomacromolecules 21(2) (2019) 854-866. ## [108] P.F. Cabanillas, E.D.e. Peña, J. Barrales-Rienda, G. Frutos, Validation and in vitro characterization of antibiotic-loaded bone cement release, International journal of pharmaceutics 209(1-2) (2000) 15-26. ## [109] B. Fink, S. Vogt, M. Reinsch, H. Büchner, Sufficient release of antibiotic by a spacer 6 weeks after implantation in two-stage revision of infected hip prostheses, Clinical Orthopaedics and Related Research® 469(11) (2011) 3141-3147. ## [110] C.C. Castelli, V. Gotti, R. Ferrari, Two-stage treatment of infected total knee arthroplasty: two to thirteen year experience using an articulating preformed spacer, International orthopaedics 38(2) (2014) 405-412. ## [111] K. Anagnostakos, What do we (not) know about antibiotic-loaded hip spacers?, SLACK Incorporated Thorofare, NJ, 2014, pp. 297-298. ## [112] M. Wekwejt, M. Michalska-Sionkowska, M. Bartmański, M. Nadolska, K. Łukowicz, A. Pałubicka, A.M. Osyczka, A. Zieliński, Influence of several biodegradable components added to pure and nanosilver-doped PMMA bone cements on its biological and mechanical properties, Materials Science and Engineering: C 117 (2020) 111286. ## [113] V. Wall, T.-H. Nguyen, N. Nguyen, P.A. Tran, Controlling antibiotic release from polymethylmethacrylate bone cement, Biomedicines 9(1) (2021) 26. ## [114] J. Slane, B. Gietman, M. Squire, Antibiotic elution from acrylic bone cement loaded with high doses of tobramycin and vancomycin, Journal of Orthopaedic Research® 36(4) (2018) 1078-1085. ## [115] A.C. Matos, L.M. Gonçalves, P. Rijo, M.A. Vaz, A.J. Almeida, A.F. Bettencourt, A novel modified acrylic bone cement matrix. A step forward on antibiotic delivery against multiresistant bacteria responsible for prosthetic joint infections, Materials Science and Engineering: C 38 (2014) 218-226. ## [116] R. Shafaghi, O. Rodriguez, E.H. Schemitsch, P. Zalzal, S.D. Waldman, M. Papini, M.R. Towler, A review of materials for managing bone loss in revision total knee arthroplasty, Materials Science and Engineering: C 104 (2019) 109941. ## [117] E.L. Cyphert, G.D. Learn, D.W. Marques, C.-y. Lu, H.A. von Recum, Antibiotic refilling, antimicrobial activity, and mechanical strength of PMMA bone cement composites critically depend on the processing technique, ACS Biomaterials Science and Engineering 6(7) (2020) 4024-4035. ## [118] R.C. Gergely, K.S. Toohey, M.E. Jones, S.R. Small, M.E. Berend, Towards the optimization of the preparation procedures of PMMA bone cement, Journal of Orthopaedic Research 34(6) (2016) 915-923. ## [119] Z. Zheng, S. Chen, X. Liu, Y. Wang, Y. Bian, B. Feng, R. Zhao, Z. Qiu, Y. Sun, H. Zhang, A bioactive polymethylmethacrylate bone cement for prosthesis fixation in osteoporotic hip replacement surgery, Materials and Design 209 (2021) 109966. ## [120] P. Bali, A.R. Prabhakar, N. Basappa, An invitro comparative evaluation of compressive strength and antibacterial activity of conventional GIC and hydroxyapatite reinforced GIC in different storage media, Journal of clinical and diagnostic research: JCDR 9(7) (2015) ZC51. ## [121] S. Najeeb, Z. Khurshid, M.S. Zafar, A.S. Khan, S. Zohaib, J.M.N. Martí, S. Sauro, J.P. Matinlinna, I.U. Rehman, Modifications in glass ionomer cements: nano-sized fillers and bioactive nanoceramics, International journal of molecular sciences 17(7) (2016) 1134. ## [122] A. Walls, Glass polyalkenoate (glass-ionomer) cements: a review, Journal of dentistry 14(6) (1986) 231-246. ## [123] A. Wilson, The glass-ionomer cement, a new translucent cement for dentistry, J Appl Chem Biotechnol 21 (1971) 313. ## [124] J.H. Berg, Glass ionomer cements, Pediatric dentistry 24(5) (2002) 430-438. ## [125] D. Powis, T. Follerås, S. Merson, A. Wilson, Materials science: Improved adhesion of a glass ionomer cement to dentin and enamel, Journal of Dental Research 61(12) (1982) 1416-1422. ## [126] I. Brook, P. Hatton, Glass-ionomers: bioactive implant materials, Biomaterials 19(6) (1998) 565-571. ## [127] A. Alaohali, D.S. Brauer, E. Gentleman, P.T. Sharpe, A modified glass ionomer cement to mediate dentine repair, Dental Materials 37(8) (2021) 1307-1315. ## [128] S.K. Sidhu, J.W. Nicholson, A review of glass-ionomer cements for clinical dentistry, Journal of functional biomaterials 7(3) (2016) 16. ## [129] A.N. Alobiedy, A.H. Al-Helli, A.R. Al-Hamaoy, Effect of adding micro and nano-carbon particles on conventional glass ionomer cement mechanical properties, Ain Shams Engineering Journal 10(4) (2019) 785-789. ## [130] R.A. Shiekh, I. Ab Rahman, N. Luddin, Modification of glass ionomer cement by incorporating hydroxyapatite-silica nano-powder composite: Sol–gel synthesis and characterization, Ceramics international 40(2) (2014) 3165-3170. ## [131] A.L. Griffen, S.J. Goepferd, Preventive oral health care for the infant, child, and adolescent, Pediatric Clinics of North America 38(5) (1991) 1209-1226. ## [132] E.R. Hook, O.J. Owen, C.A. Bellis, J.A. Holder, D.J. O’Sullivan, M.E. Barbour, Development of a novel antimicrobial-releasing glass ionomer cement functionalized with chlorhexidine hexametaphosphate nanoparticles, Journal of nanobiotechnology 12(1) (2014) 1-9. ## [133] L. Kiri, M. Filiaggi, D. Boyd, Methotrexate-loaded glass ionomer cements for drug release in the skeleton: an examination of composition–property relationships, Journal of Biomaterials Applications 30(6) (2016) 732-739. ## [134] M. Fuchs, E. Gentleman, S. Shahid, R.G. Hill, D.S. Brauer, Therapeutic ion-releasing bioactive glass ionomer cements with improved mechanical strength and radiopacity, Frontiers in Materials 2 (2015) 63. ## [135] J.W. MCLEAN, Proposed nomenclature for glass-ionomer dental cements and related materials, Quintessence Int 25 (1994) 587-589. ## [136] J. Ellis, A. Wilson, Polyphosphonate cements: a new class of dental materials, Journal of materials science letters 9(9) (1990) 1058-1060. ## [137] S. Crisp, M.A. Pringuer, D. Wardleworth, A.D. Wilson, Reactions in glass ionomer cements: II. An infrared spectroscopic study, Journal of dental research 53(6) (1974) 1414-1419. ## [138] M. Otsuka, Y. Nakahigashi, Y. Matsuda, J.L. Fox, W.I. Higuchi, Y. Sugiyama, Effect of geometrical cement size on in vitro and in vivo indomethacin release from self-setting apatite cement, Journal of controlled release 52(3) (1998) 281-289. ## [139] J.G. Hendriks, G.T. Ensing, J.R. van Horn, J. Lubbers, H.C. van der Mei, H.J. Busscher, Increased release of gentamicin from acrylic bone cements under influence of low-frequency ultrasound, Journal of controlled release 92(3) (2003) 369-374. ## [140] J. Hendriks, J. Van Horn, H. Van Der Mei, H. Busscher, Backgrounds of antibiotic-loaded bone cement and prosthesis-related infection, Biomaterials 25(3) (2004) 545-556. ## [141] V.L. Schade, T.S. Roukis, The role of polymethylmethacrylate antibiotic–loaded cement in addition to debridement for the treatment of soft tissue and osseous infections of the foot and ankle, The Journal of foot and ankle surgery 49(1) (2010) 55-62. ## [142] P.P. Spicer, S.R. Shah, A.M. Henslee, B.M. Watson, L.A. Kinard, J.D. Kretlow, K. Bevil, L. Kattchee, G.N. Bennett, N. Demian, Evaluation of antibiotic releasing porous polymethylmethacrylate space maintainers in an infected composite tissue defect model, Acta Biomaterialia 9(11) (2013) 8832-8839. ## [143] W. Wei, E. Abdullayev, A. Hollister, D. Mills, Y.M. Lvov, Clay nanotube/poly (methyl methacrylate) bone cement composites with sustained antibiotic release, Macromolecular materials and engineering 297(7) (2012) 645-653. ## [144] M.H. Lissarrague, H. Garate, M.E. Lamanna, N.B. D’Accorso, S.N. Goyanes, Medicinal patches and drug nanoencapsulation: a noninvasive alternative, Nanomedicine for Drug Delivery and Therapeutics  (2013) 337-371. ## [145] W. Gu, C. Wu, J. Chen, Y. Xiao, Nanotechnology in the targeted drug delivery for bone diseases and bone regeneration, International journal of nanomedicine 8 (2013) 2305. ## [146] K. Anagnostakos, C. Meyer, Antibiotic elution from hip and knee acrylic bone cement spacers: a systematic review, BioMed research international 2017 (2017). ## [147] S. Imazato, Antibacterial properties of resin composites and dentin bonding systems, Dental materials 19(6) (2003) 449-457. ## [148] J. Martínez‐Moreno, V. Merino, A. Nácher, J.L. Rodrigo, M. Climente, M. Merino‐Sanjuán, Antibiotic‐loaded bone cement as prophylaxis in total joint replacement, Orthopaedic surgery 9(4) (2017) 331-341. ## [149] Y. He, J. Trotignon, B. Loty, A. Tcharkhtchi, J. Verdu, Effect of antibiotics on the properties of poly (methylmethacrylate)‐based bone cement, Journal of Biomedical Materials Research: An Official Journal of The Society for Biomaterials, The Japanese Society for Biomaterials, and The Australian Society for Biomaterials and the Korean Society for Biomaterials 63(6) (2002) 800-806. ## [150] H. Wahlig, E. Dingeldein, Antibiotics and bone cements: experimental and clinical long-term observations, Acta Orthopaedica Scandinavica 51(1-6) (1980) 49-56. ## [151] V. Suhardi, D. Bichara, S. Kwok, A. Freiberg, H. Rubash, H. Malchau, S. Yun, O. Muratoglu, E. Oral, A fully functional drug-eluting joint implant, Nature biomedical engineering 1(6) (2017) 1-11. ## [152] S.-H. Lee, C.-L. Tai, S.-Y. Chen, C.-H. Chang, Y.-H. Chang, P.-H. Hsieh, Elution and mechanical strength of vancomycin-loaded bone cement: in vitro study of the influence of brand combination, PLoS One 11(11) (2016) e0166545. ## [153] A. Lilikakis, M.P. Sutcliffe, The effect of vancomycin addition to the compression strength of antibiotic-loaded bone cements, International orthopaedics 33(3) (2009) 815-819. ## [154] E. Lautenschlager, J. Jacobs, G. Marshall, P. Meyer Jr, Mechanical properties of bone cements containing large doses of antibiotic powders, Journal of biomedical materials research 10(6) (1976) 929-938. ## [155] A. Almaroof, S. Niazi, L. Rojo, F. Mannocci, S. Deb, Influence of a polymerizable eugenol derivative on the antibacterial activity and wettability of a resin composite for intracanal post cementation and core build-up restoration, Dental Materials 32(7) (2016) 929-939. ## [156] M. Islas-Blancas, J. Cervantes-Uc, R. Vargas-Coronado, J. Cauich-Rodriguez, R. Vera-Graziano, A. Martinez-Richa, Characterization of bone cements prepared with functionalized methacrylates and hydroxyapatite, Journal of Biomaterials Science, Polymer Edition 12(8) (2001) 893-910. ## [157] J.M. Cervantes-Uc, H. Vázquez-Torres, J.V. Cauich-Rodríguez, B. Vázquez-Lasa, J.S.R. del Barrio, Comparative study on the properties of acrylic bone cements prepared with either aliphatic or aromatic functionalized methacrylates, Biomaterials 26(19) (2005) 4063-4072. ## [158] M. Ginebra, A. Rilliard, E. Fernández, C. Elvira, J. San Roman, J. Planell, Mechanical and rheological improvement of a calcium phosphate cement by the addition of a polymeric drug, Journal of Biomedical Materials Research: An Official Journal of The Society for Biomaterials, The Japanese Society for Biomaterials, and The Australian Society for Biomaterials and the Korean Society for Biomaterials 57(1) (2001) 113-118. ## [159] B. Vazquez, C. Elvira, J. San Roman, B. Levenfeld, Reactivity of a polymerizable amine activator in the free radical copolymerization with methyl methacrylate and surface properties of copolymers, Polymer 38(17) (1997) 4365-4372. ## [160] P. Oungeun, R. Rojanathanes, P. Pinsornsak, S. Wanichwecharungruang, Sustaining antibiotic release from a poly (methyl methacrylate) bone-spacer, Acs Omega 4(12) (2019) 14860-14867. ## [161] A. Bettencourt, H. Florindo, I. Ferreira, A. Matos, J. Monteiro, C. Neves, P. Lopes, A. Calado, M. Castro, A. Almeida, Incorporation of tocopherol acetate-containing particles in acrylic bone cement, Journal of microencapsulation 27(6) (2010) 533-541. ## [162] I. Chen, C.-Y. Su, W.-H. Nien, T.-T. Huang, C.-H. Huang, Y.-C. Lu, Y.-J. Chen, G.-C. Huang, H.-W. Fang, Influence of antibiotic-loaded acrylic bone cement composition on drug release behavior and mechanism, Polymers 13(14) (2021) 2240. ## [163] M. Fosca, J.V. Rau, V. Uskoković, Factors influencing the drug release from calcium phosphate cements, Bioactive materials 7 (2022) 341-363. ## [164] S. Hesaraki, R. Nemati, N. Nosoudi, Preparation and characterisation of porous calcium phosphate bone cement as antibiotic carrier, Advances in Applied Ceramics 108(4) (2009) 231-240. ## [165] G. Palmer, F. Jones, R. Billington, G. Pearson, Chlorhexidine release from an experimental glass ionomer cement, Biomaterials 25(23) (2004) 5423-5431. ## [166] M. Barekat, R.S. Razavi, F. Sharifianjazi, Synthesis and the surface resistivity of carbon black pigment on black silicone thermal control coating, Synthesis and Reactivity in Inorganic, Metal-Organic, and Nano-Metal Chemistry 45(4) (2015) 502-506. ## [167] H. Yan, H. Yang, K. Li, J. Yu, C. Huang, Effects of chlorhexidine-encapsulated mesoporous silica nanoparticles on the anti-biofilm and mechanical properties of glass ionomer cement, Molecules 22(7) (2017) 1225. ## [168] M. Nimni, Polypeptide growth factors: targeted delivery systems, Biomaterials 18(18) (1997) 1201-1225. ## [169] M.-P. Ginebra, T. Traykova, J.A. Planell, Calcium phosphate cements as bone drug delivery systems: a review, Journal of controlled release 113(2) (2006) 102-110. ## [170] M. Kawashita, K. Kawamura, Z. Li, PMMA-based bone cements containing magnetite particles for the hyperthermia of cancer, Acta Biomaterialia 6(8) (2010) 3187-3192. ## [171] G.R. Mundy, Metastasis to bone: causes, consequences and therapeutic opportunities, Nature Reviews Cancer 2(8) (2002) 584-593. ## [172] L.J. Suva, C. Washam, R.W. Nicholas, R.J. Griffin, Bone metastasis: mechanisms and therapeutic opportunities, Nature Reviews Endocrinology 7(4) (2011) 208-218. ## [173] A. Clain, Secondary malignant disease of bone, British journal of cancer 19(1) (1965) 15. ## [174] F. Niazvand, P.R. Wagh, E. Khazraei, M.B. Dastjerdi, C. Patil, I.A. Najar, Application of carbon allotropes composites for targeted cancer therapy drugs: A review, Journal of Composites and Compounds 3(7) (2021) 140-151. ## [175] L. Bazli, A.M. Chahardehi, H. Arsad, B. Malekpouri, M.A. Jazi, N. Azizabadi, Factors influencing the failure of dental implants: A Systematic Review, Journal of Composites and Compounds 2(2) (2020) 18-25. ## [176] P. Zwolak, J.C. Manivel, P. Jasinski, M.N. Kirstein, A.Z. Dudek, J. Fisher, E.Y. Cheng, Cytotoxic effect of zoledronic acid-loaded bone cement on giant cell tumor, multiple myeloma, and renal cell carcinoma cell lines, JBJS 92(1) (2010) 162-168. ## [177] Y. Tanzawa, H. Tsuchiya, T. Shirai, H. Nishida, K. Hayashi, A. Takeuchi, K. Tomita, M. Kawahara, Potentiation of the antitumor effect of calcium phosphate cement containing anticancer drug and caffeine on rat osteosarcoma, Journal of Orthopaedic Science 16(1) (2011) 77-84. ## [178] Y. Su, I. Cockerill, Y. Zheng, L. Tang, Y.-X. Qin, D. Zhu, Biofunctionalization of metallic implants by calcium phosphate coatings, Bioactive materials 4 (2019) 196-206. ## [179] A. Abuchenari, M. Moradi, The Effect of Cu-substitution on the microstructure and magnetic properties of Fe-15% Ni alloy prepared by mechanical alloying, Journal of Composites and Compounds 1(1) (2019) 10-15. ## [180] I. Tajzad, E. Ghasali, Production methods of CNT-reinforced Al matrix composites: a review, Journal of Composites and Compounds 2(2) (2020) 1-9. ## [181] H. Ghazanfari, S. Hasanizadeh, S. Eskandarinezhad, S. Hassani, M. Sheibani, A.D. Torkamani, B. Fakić, Recent progress in materials used towards corrosion protection of Mg and its alloys, Journal of Composites and Compounds 2(5) (2020) 205-214. ## [182] J.A. Bishop, A.A. Palanca, M.J. Bellino, D.W. Lowenberg, Assessment of compromised fracture healing, JAAOS-Journal of the American Academy of Orthopaedic Surgeons 20(5) (2012) 273-282. ## [183] G. Silva, O. Coutinho, P. Ducheyne, R. Reis, Materials in particulate form for tissue engineering. 2. Applications in bone, Journal of Tissue Engineering and Regenerative Medicine 1(2) (2007) 97-109. ## [184] A. Phillips, Overview of the fracture healing cascade, Injury 36(3) (2005) S5-S7. ## [185] V. Devescovi, E. Leonardi, G. Ciapetti, E. Cenni, Growth factors in bone repair, La Chirurgia degli organi di movimento 92(3) (2008) 161-168. ## [186] C.-K. Wang, M.-L. Ho, G.-J. Wang, J.-K. Chang, C.-H. Chen, Y.-C. Fu, H.-H. Fu, Controlled-release of rhBMP-2 carriers in the regeneration of osteonecrotic bone, Biomaterials 30(25) (2009) 4178-4186. ## [187] W.A. Jiranek, A.D. Hanssen, A.S. Greenwald, Antibiotic-loaded bone cement for infection prophylaxis in total joint replacement, JBJS 88(11) (2006) 2487-2500. ## [188] M.-A. Benoit, B. Mousset, C. Delloye, R. Bouillet, J. Gillard, Antibiotic-loaded plaster of Paris implants coated with poly lactide-co-glycolide as a controlled release delivery system for the treatment of bone infections, International orthopaedics 21(6) (1998) 403-408. ## [189] G.H. Walenkamp, L.L. Kleijn, M. de Leeuw, Osteomyelitis treated with gentamicin-PMMA beads: 100 patients followed for 1–12 years, Acta Orthopaedica Scandinavica 69(5) (1998) 518-522. ## [190] M. Zilberman, J.J. Elsner, Antibiotic-eluting medical devices for various applications, Journal of Controlled Release 130(3) (2008) 202-215. ## [191] Z. Zhou, J. Seta, D.C. Markel, W. Song, S.M. Yurgelevic, X.W. Yu, W. Ren, Release of vancomycin and tobramycin from polymethylmethacrylate cements impregnated with calcium polyphosphate hydrogel, Journal of Biomedical Materials Research Part B: Applied Biomaterials 106(8) (2018) 2827-2840. ## [192] T. Wu, Q. Zhang, W. Ren, X. Yi, Z. Zhou, X. Peng, X. Yu, M. Lang, Controlled release of gentamicin from gelatin/genipin reinforced beta-tricalcium phosphate scaffold for the treatment of osteomyelitis, Journal of Materials Chemistry B 1(26) (2013) 3304-3313. ## [193] T.Y. Wu, Z.B. Zhou, Z.W. He, W.P. Ren, X.W. Yu, Y. Huang, Reinforcement of a new calcium phosphate cement with RGD‐chitosan‐fiber, Journal of Biomedical Materials Research Part A: An Official Journal of The Society for Biomaterials, The Japanese Society for Biomaterials, and The Australian Society for Biomaterials and the Korean Society for Biomaterials 102(1) (2014) 68-75. ## [194] T. Wu, X. Hua, Z. He, X. Wang, X. Yu, W. Ren, The bactericidal and biocompatible characteristics of reinforced calcium phosphate cements, Biomedical Materials 7(4) (2012) 045003. ## [195] W.C. Chen, J.H.C. Lin, C.P. Ju, Transmission electron microscopic study on setting mechanism of tetracalcium phosphate/dicalcium phosphate anhydrous‐based calcium phosphate cement, Journal of Biomedical Materials Research Part A: An Official Journal of The Society for Biomaterials, The Japanese Society for Biomaterials, and The Australian Society for Biomaterials and the Korean Society for Biomaterials 64(4) (2003) 664-671. ## [196] M.R. Nafchi, R. Ebrahimi-kahrizsangi, Synthesis of Zn-Co-TiO2 nanocomposite coatings by electrodeposition with photocatalytic and antifungal activities, Journal of Composites and Compounds 3(9) (2021) 213-217. ## [197] B. Kankilic, E. Bayramli, E. Kilic, S. Dağdeviren, F. Korkusuz, Vancomycin containing PLLA/β-TCP controls MRSA in vitro, Clinical Orthopaedics and Related Research® 469(11) (2011) 3222-3228. ## [198] B. Kankilic, E. Bilgic, P. Korkusuz, F. Korkusuz, Vancomycin containing PLLA/β-TCP controls experimental osteomyelitis in vivo, Journal of Orthopaedic Surgery and Research 9(1) (2014) 1-6. ## [199] J.S. Moskowitz, M.R. Blaisse, R.E. Samuel, H.-P. Hsu, M.B. Harris, S.D. Martin, J.C. Lee, M. Spector, P.T. Hammond, The effectiveness of the controlled release of gentamicin from polyelectrolyte multilayers in the treatment of Staphylococcus aureus infection in a rabbit bone model, Biomaterials 31(23) (2010) 6019-6030. ## [200] A. Moghaddam, V. Graeser, F. Westhauser, U. Dapunt, T. Kamradt, S.M. Woerner, G. Schmidmaier, Patients’ safety: is there a systemic release of gentamicin by gentamicin-coated tibia nails in clinical use?, Therapeutics and clinical risk management 12 (2016) 1387. ## [201] M. Raschke, T. Vordemvenne, T. Fuchs, Limb salvage or amputation? The use of a gentamicin coated nail in a severe, grade IIIc tibia fracture, European Journal of Trauma and Emergency Surgery 36(6) (2010) 605-608. ## [202] M. Diefenbeck, C. Schrader, F. Gras, T. Mückley, J. Schmidt, S. Zankovych, J. Bossert, K. Jandt, A. Völpel, B. Sigusch, Gentamicin coating of plasma chemical oxidized titanium alloy prevents implant-related osteomyelitis in rats, Biomaterials 101 (2016) 156-164. ## [203] A. Mangram, Guideline for prevention of surgical site infection, 1999. Hospital Infection Control Practice Advisory Committee, Infect. Control Hosp. Epidemiol. 20 (1999) 250-278. ## [204] K. Baskar, T. Anusuya, G.D. Venkatasubbu, Mechanistic investigation on microbial toxicity of nano hydroxyapatite on implant associated pathogens, Materials Science and Engineering: C 73 (2017) 8-14. ## [205] X.-H. Xie, X.-W. Yu, S.-X. Zeng, R.-L. Du, Y.-H. Hu, Z. Yuan, E.-Y. Lu, K.-R. Dai, T.-T. Tang, Enhanced osteointegration of orthopaedic implant gradient coating composed of bioactive glass and nanohydroxyapatite, Journal of Materials Science: Materials in Medicine 21(7) (2010) 2165-2173. ## [206] V. Uskoković, T.A. Desai, In vitro analysis of nanoparticulate hydroxyapatite/chitosan composites as potential drug delivery platforms for the sustained release of antibiotics in the treatment of osteomyelitis, Journal of pharmaceutical sciences 103(2) (2014) 567-579. ## [207] P. Xiu, Z. Jia, J. Lv, C. Yin, H. Cai, C. Song, H. Leng, Y. Zheng, Z. Liu, Y. Cheng, Hierarchical micropore/nanorod apatite hybrids in-situ grown from 3-D printed macroporous Ti6Al4V implants with improved bioactivity and osseointegration, Journal of Materials Science and Technology 33(2) (2017) 179-186. ## [208] C.-C. Yang, C.-C. Lin, J.-W. Liao, S.-K. Yen, Vancomycin–chitosan composite deposited on post porous hydroxyapatite coated Ti6Al4V implant for drug controlled release, Materials Science and Engineering: C 33(4) (2013) 2203-2212. ## [209] F.A. Shah, M. Trobos, P. Thomsen, A. Palmquist, Commercially pure titanium (cp-Ti) versus titanium alloy (Ti6Al4V) materials as bone anchored implants—Is one truly better than the other?, Materials Science and Engineering: C 62 (2016) 960-966. ## [210] S.V. Dorozhkin, Biphasic, triphasic and multiphasic calcium orthophosphates, Acta biomaterialia 8(3) (2012) 963-977. ## [211] S.J. Polak, S.K.L. Levengood, M.B. Wheeler, A.J. Maki, S.G. Clark, A.J.W. Johnson, Analysis of the roles of microporosity and BMP-2 on multiple measures of bone regeneration and healing in calcium phosphate scaffolds, Acta Biomaterialia 7(4) (2011) 1760-1771. ## [212] O. Johnell, J. Kanis, An estimate of the worldwide prevalence and disability associated with osteoporotic fractures, Osteoporosis international 17(12) (2006) 1726-1733. ## [213] J. Broderick, R. Bruce-Brand, E. Stanley, K. Mulhall, Osteoporotic hip fractures: the burden of fixation failure, The Scientific World Journal 2013 (2013). ## [214] R. De Santis, A. Gloria, L. Ambrosio, Composite materials for hip joint prostheses, Biomedical composites, Elsevier2017, pp. 237-259. ## [215] M. Li, X. Liu, X. Liu, B. Ge, Calcium phosphate cement with BMP-2-loaded gelatin microspheres enhances bone healing in osteoporosis: a pilot study, Clinical Orthopaedics and Related Research® 468(7) (2010) 1978-1985. ## [216] T. Calvo-Fernandez, J. Parra, M. Fernández-Gutiérrez, B. Vazquez-Lasa, A. Lopez-Bravo, F. Collia, M.P. de la Cruz, J. San Román, Biocompatibility of alendronate-loaded acrylic cement for vertebroplasty, Eur Cell Mater 20 (2010) 260-273. ## [217] M. Baier, P. Staudt, R. Klein, U. Sommer, R. Wenz, I. Grafe, P.J. Meeder, P.P. Nawroth, C. Kasperk, Strontium enhances osseointegration of calcium phosphate cement: a histomorphometric pilot study in ovariectomized rats, Journal of orthopaedic surgery and research 8(1) (2013) 1-8. ## [218] D. Guo, K. Xu, X. Zhao, Y. Han, Development of a strontium-containing hydroxyapatite bone cement, Biomaterials 26(19) (2005) 4073-4083. ## [219] Z. Jindong, T. Hai, G. Junchao, W. Bo, B. Li, W.B. Qiang, Evaluation of a novel osteoporotic drug delivery system in vitro: alendronate-loaded calcium phosphate cement, Orthopedics 33(8) (2010). ## [220] G. Azuara, J. García-García, B. Ibarra, F. Parra-Ruiz, A. Asúnsolo, M. Ortega, B. Vázquez-Lasa, J. Buján, J. San Román, B. De la Torre, Experimental study of the application of a new bone cement loaded with broad spectrum antibiotics for the treatment of bone infection, Revista Española de Cirugía Ortopédica y Traumatología (English Edition) 63(2) (2019) 95-103. ## [221] V.P.S. Sidhu, R. Borges, M. Yusuf, S. Mahmoudi, S.F. Ghorbani, M. Hosseinikia, P. Salahshour, F. Sadeghi, M. Arefian, A comprehensive review of bioactive glass: synthesis, ion substitution, application, challenges, and future perspectives, Journal of Composites and Compounds 3(9) (2021) 247-261. ## [222] K.-D. Kühn, What is bone cement?, The well-cemented total hip arthroplasty, Springer2005, pp. 52-59. ## [223] L. Thomson, F. Law, K. James, C. Matthew, N. Rushton, Biocompatibility of particulate polymethylmethacrylate bone cements: a comparative study in vitro and in vivo, Biomaterials 13(12) (1992) 811-818. ## [224] K. Anagnostakos, J. Kelm, Enhancement of antibiotic elution from acrylic bone cement, Journal of Biomedical Materials Research Part B: Applied Biomaterials 90(1) (2009) 467-475. ## [225] J. Slane, J. Vivanco, J. Meyer, H.-L. Ploeg, M. Squire, Modification of acrylic bone cement with mesoporous silica nanoparticles: effects on mechanical, fatigue and absorption properties, Journal of the mechanical behavior of biomedical materials 29 (2014) 451-461. ## [226] S. Ruchholtz, G. Tager, D. Nast-Kolb, The periprosthetic total hip infection, Der Unfallchirurg 107(4) (2004) 307-319. ## [227] D.P. Lew, F.A. Waldvogel, Osteomyelitis, The Lancet 364(9431) (2004) 369-379. ## [228] W.H. Harris, C.B. Sledge, Total hip and total knee replacement, New England Journal of Medicine 323(11) (1990) 725-731. ## [229] M.P.F. Graça, S.R. Gavinho, Calcium phosphate cements in tissue engineering, Contemporary Topics about Phosphorus in Biology and Materials  (2020). ## [230] A.C. Matos, C.F. Marques, R.V. Pinto, I.A. Ribeiro, L.M. Gonçalves, M.A. Vaz, J. Ferreira, A.J. Almeida, A.F. Bettencourt, Novel doped calcium phosphate-PMMA bone cement composites as levofloxacin delivery systems, International journal of pharmaceutics 490(1-2) (2015) 200-208. ## [231] U. Lohbauer, Dental glass ionomer cements as permanent filling materials?–properties, limitations and future trends, Materials 3(1) (2010) 76-96. ## [232] Y. Weng, X. Guo, R. Gregory, D. Xie, A novel antibacterial dental glass‐ionomer cement, European Journal of Oral Sciences 118(5) (2010) 531-534. ## [233] W. Chen, W. Thein-Han, M.D. Weir, Q. Chen, H.H. Xu, Prevascularization of biofunctional calcium phosphate cement for dental and craniofacial repairs, Dental Materials 30(5) (2014) 535-544. ## [234] Y. Sa, Y. Gao, M. Wang, T. Wang, X. Feng, Z. Wang, Y. Wang, T. Jiang, Bioactive calcium phosphate cement with excellent injectability, mineralization capacity and drug-delivery properties for dental biomimetic reconstruction and minimum intervention therapy, RSC advances 6(33) (2016) 27349-27359. ## [235] R.K. Wassif, M. Elkayal, R.N. Shamma, S.A. Elkheshen, Recent advances in the local antibiotics delivery systems for management of osteomyelitis, Drug Delivery 28(1) (2021) 2392-2414. ## [236] E. Schwarzkopf, R. Sachdev, J. Flynn, V. Boddapati, R.E. Padilla, D.E. Prince, Occurrence, risk factors, and outcomes of bone cement implantation syndrome after hemi and total hip arthroplasty in cancer patients, Journal of surgical oncology 120(6) (2019) 1008-1015. ## [237] S.S. Phull, A.R. Yazdi, M. Ghert, M.R. Towler, Bone cement as a local chemotherapeutic drug delivery carrier in orthopedic oncology: A review, Journal of Bone Oncology 26 (2021) 100345. ## [238] L. Topoleski, R. Rodriguez-Pinto, 7.2 Bone Cement,  (2017).</REF>
				</REFRENCE>
					</REFRENCES>
			</ARTICLE>
			</ARTICLES>
</ISCJOURNAL>

				</XML>