Abstract
Improving the strength of bone cement is one of the critical goals in cement designing to maintain their integrity and stabilize connection between the cement and their surrounding tissue during the time that the cement has been replaced by matured bone tissue. To this aim, the authors decided to evaluate setting behavior and compressive strength of Magnesium Phosphate Cement (MPC) by adding car-boxylated Single-Walled Carbon Nanotubes (c-SWCNTs) and assess the biocompatibility of the composite cement. MPC containing 0 wt% to 0.5 wt% of c-SWCNTs at the Powder to Liquid Ratio (PLR) of 1 g-mL-1 to 2 g-mL-1 were produced. Adding c-SWCNTs to MPC postponed the setting time of the cement at the beginning of the cementation process and preserved the reaction with a high rate for a longer time. In addition, the compressive strength of MPC was enhanced to 28 MPa by adding 0.2 wt% c-SWCNTs because of producing cement with compact and uniform micro structure. In addition, cell behavior on MPC with/without c-SWCNTs indicated no cytotoxic effect alongside a suitable adhesion and proliferation of them.
Similar content being viewed by others
References
Rahman C V, Saeed A, White L J, Gould T W A, Kirby G T S, Sawkins M J, Alexander C, Rose F R A J, Shakesheff K M. Chemistry of polymer and ceramic-based injectable scaffolds and their applications in regenerative medicine. Chemistry of polymer and ceramic-based injectable scaffolds and their applications in regenerative medicine, 2012, 24, 781–795.
Low K L, Tan S H, Zein S H S, Roether J A, Mourino V, Boccaccini A R. Calcium phosphate-based composites as injectable bone substitute materials. Calcium phosphate-based composites as injectable bone substitute materials, 2010, 94, 273–286.
Ginebra M, Fernandez E, Driessens F C M, Planell J A. Modeling of the hydrolysis of etr-tricalcium phosphate. Modeling of the hydrolysis of etr-tricalcium phosphate, 1999, 82, 2808–2812.
Grossardt C, Ewald A, Grover L M, Barralet J E, Gbureck U. Passive and active in vitro resorption of calcium and magnesium phosphate cements by osteoclastic cells. Passive and active in vitro resorption of calcium and magnesium phosphate cements by osteoclastic cells, 2010, 16, 3687–3695.
Ignjatovic N, Ajdukovic Z, Rajkovic J, Najman S, Mihailovic D, Uskokovic D. Enhanced osteogenesis of na-nosized cobalt-substituted hydroxyapatite. Enhanced osteogenesis of na-nosized cobalt-substituted hydroxyapatite, 2015, 12, 604–612.
Burguera E F, Xu H H K, Sun L. Injectable calcium phosphate cement: Effects of powder-to-liquid ratio and needle size. Injectable calcium phosphate cement: Effects of powder-to-liquid ratio and needle size, 2008, 84, 493–502.
Montufar E B, Maazouz Y, Ginebra M P. Relevance of the setting reaction to the injectability of tricalcium phosphate pastes. Relevance of the setting reaction to the injectability of tricalcium phosphate pastes, 2013, 9, 6188–6198.
Christel T, Kuhlmann M, Vorndran E, Groll J, Gbureck U. Dual setting etr-tricalcium phosphate cements. Dual setting etr-tricalcium phosphate cements, 2013, 24, 573–581.
Wang J, Liu C S, Liu Y F, Zhang S. Double-network interpenetrating bone cement via in situ hybridization protocol. Double-network interpenetrating bone cement via in situ hybridization protocol, 2010, 20, 3997–4011.
Chang C H, Liao T C, Hsu Y M, Fang H W, Chen C C, Lin F H. A poly(propylene fumarate)-calcium phosphate based angiogenic injectable bone cement for femoral head osteonecrosis. A poly(propylene fumarate)-calcium phosphate based angiogenic injectable bone cement for femoral head osteonecrosis, 2010, 31, 4048–4055.
Tamimi F, Sheikh Z, Barralet J. Dicalcium phosphate cements: Brushite and monetite. Acta Biomaterialia, 2012, 8, 474–487.
Ewald A, Helmschrott K, Knebl G, Mehrban N, Grover L M, Gbureck U. Effect of cold-setting calcium- and magnesium phosphate matrices on protein expression in osteoblastic cells. Effect of cold-setting calcium- and magnesium phosphate matrices on protein expression in osteoblastic cells, 2011, 96, 326–332.
Cama G, Gharibi B, Saif Sait M, Knowles J C, Lagazzo A, Romeed S, Di Silvio L, Deb S. A novel method of forming micro- and macroporous monetite cements. A novel method of forming micro- and macroporous monetite cements, 2013, 1, 958–969.
Alkhraisat M H, Cabrejos-Azama J, Rodriguez C R, Jerez L B, Cabarcos E L. Magnesium substitution in brushite cements. Magnesium substitution in brushite cements, 2013, 33, 475–481.
Klammert U, Reuther T, Blank M, Reske I, Barralet J E, Grover L M, Kiibler A C, Gbureck U. Phase composition, mechanical performance and in vitro biocompatibility of hydraulic setting calcium magnesium phosphate cement. Phase composition, mechanical performance and in vitro biocompatibility of hydraulic setting calcium magnesium phosphate cement, 2010, 6, 1529–1535.
Kanter B, Geffers M, Ignatius A, Gbureck U. Control of in vivo mineral bone cement degradation. Control of in vivo mineral bone cement degradation, 2014, 10, 3279–3287.
Mestres G, Ginebra M P. Novel magnesium phosphate cements with high early strength and antibacterial properties. Novel magnesium phosphate cements with high early strength and antibacterial properties, 2011, 7, 1853–1861.
Moseke C, Saratsis V, Gbureck U. Injectability and mechanical properties of magnesium phosphate cements. Injectability and mechanical properties of magnesium phosphate cements, 2011, 22, 2591–2598.
Chen F P, Liu C S, Wei J, Chen X L. Physicochemical properties and biocompatibility of white dextrin modified injectable calcium-magnesium phosphate cement. Physicochemical properties and biocompatibility of white dextrin modified injectable calcium-magnesium phosphate cement, 2012, 9, 979–990.
Vorndran E, Ewald A, Miiller F A, Zorn K, Kufner A, Gbureck U. Formation and properties of magnesium-ammonium-phosphate hexahydrate biocements in the Ca-Mg-PO4 system. Formation and properties of magnesium-ammonium-phosphate hexahydrate biocements in the Ca-Mg-P04 system, 2011, 22, 429–436.
Lakhkar N J, Lee IH, Kim H W, Salih V, Wall IB, Knowles J C. Bone formation controlled by biologically relevant inorganic ions: Role and controlled delivery from phosphate-based glasses. Bone formation controlled by biologically relevant inorganic ions: Role and controlled delivery from phosphate-based glasses, 2013, 65, 405–420.
Rude R K, Gruber H E. Magnesium deficiency and osteoporosis: Animal and human observations. Magnesium deficiency and osteoporosis: Animal and human observations, 2004, 15, 710–716.
Chew K K, Low K L, Zein S H S, McPhail D S, Gerhardt L C, Roether J A, Boccaccini A R. Reinforcement of calcium phosphate cement with multi-walled carbon nanotubes and bovine serum albumin for injectable bone substitute applications. Reinforcement of calcium phosphate cement with multi-walled carbon nanotubes and bovine serum albumin for injectable bone substitute applications, 2011, 4, 331–339.
Wang X P, Ye J D, Wang Y J, Chen L. Reinforcement of calcium phosphate cement by bio-mineralized carbon na-notube. Reinforcement of calcium phosphate cement by bio-mineralized carbon na-notube, 2007, 90, 962–964.
Mansoori Boroujeni N, Zhou H, Luchini T J F, Bhaduri S B. Development of multi-walled carbon nanotubes reinforced monetite bionanocomposite cements for orthopedic applications. Development of multi-walled carbon nanotubes reinforced monetite bionanocomposite cements for orthopedic applications, 2013, 33, 4323–4330.
Gholami F, Zein S H S, Gerhardt L C, Low K L, Tan S H, McPhail D S, Grover L M, Boccaccini A R. Cytocompati-bility, bioactivity and mechanical strength of calcium phosphate cement reinforced with multi-walled carbon nanotubes and bovine serum albumin. Cytocompati-bility, bioactivity and mechanical strength of calcium phosphate cement reinforced with multi-walled carbon nanotubes and bovine serum albumin, 2013, 39, 4975–4983.
Newman P, Mnett A, Ellis-Behnke R, Zreiqat H. Carbon nanotubes: Their potential and pitfalls for bone tissue regeneration and engineering. Carbon nanotubes: Their potential and pitfalls for bone tissue regeneration and engineering, 2013, 9, 1139–1158.
Kotchey G P, Zhao Y, Kagan V E, Star A. Perox-idase-mediated biodegradation of carbon nanotubes in vitro and in vivo., 2013, 65, 1921–1932.
Poland C A, Duffin R, Kinloch I, Maynard A, Wallace W A H, Seaton A, Stone V, Brown S, Macnee W, Donaldson K. Carbon nanotubes introduced into the abdominal cavity of mice show asbestos-like pathogenicity in a pilot study. Carbon nanotubes introduced into the abdominal cavity of mice show asbestos-like pathogenicity in a pilot study, 2008, 3, 423–428.
Kagan V E, Konduru N V, Feng W, Allen B L, Conroy J, Volkov Y, Vlasova I I, Belikova N A, Yanamala N, Kapralov A, Tyurina Y Y, Shi J, Kisin E R, Murray A R, Franks J, Stolz D, Gou P, Klein-Seetharaman J, Fadeel B, Star A, Shvedova A A. Carbon nanotubes degraded by neutrophil myeloperoxidase induce less pulmonary inflammation. Carbon nanotubes degraded by neutrophil myeloperoxidase induce less pulmonary inflammation, 2010, 5, 354–359.
Bhattacharya K, El-Sayed R, Andon F T, Mukherjee S P, Gregory J, Li H, Zhao Y C, Seo W, Fornara A, Brandner B, Toprak M S, Leifer K, Star A, Fadeel B. Lactoperox-idase-mediated degradation of single-walled carbon nanotubes in the presence of pulmonary surfactant. Lactoperox-idase-mediated degradation of single-walled carbon nanotubes in the presence of pulmonary surfactant, 2015, 91, 506–517.
Esnaashary M H, Rezaie H R, Khavandi A, Javadpour J. Solubility controlling of the precursor powders of magnesium phosphate cement by changing the powder composition. Solubility controlling of the precursor powders of magnesium phosphate cement by changing the powder composition, 2017, 116, 286–292.
Esnaashary M H, Rezaie H R, Khavandi A, Javadpour J. Evaluation of setting time and compressive strength of a new bone cement precursor powder containing Mg-Na-Ca. Evaluation of setting time and compressive strength of a new bone cement precursor powder containing Mg-Na-Ca, 2018, 232, 1017–1024.
Hough L A, Islam M F, Janmey P A, Yodh A G. Viscoelas-ticity of single wall carbon nanotube suspensions. Viscoelas-ticity of single wall carbon nanotube suspensions, 2004, 93, 1–4.
Hough L A, Islam M F, Hammouda B, Yodh A G, Heiney P A. Structure of semidilute single-wall carbon nanotube suspensions and gels. Structure of semidilute single-wall carbon nanotube suspensions and gels, 2006, 6, 313–317.
Wagh A S. Chemically Bonded Phosphate Ceramics: Twenty-First Century Materials with Diverse Applications, Elsevier Ltd, Oxford, UK, 2004.
Bullard J W, Jennings H M, Livingston R A, Nonat A, Scherer G W, Schweitzer J S, Scrivener K L, Thomas J J. Mechanisms of cement hydration. Mechanisms of cement hydration, 2011, 41, 1208–1223.
Thomas J J, Biernacki J J, Bullard J W, Bishnoi S, Dolado J S, Scherer G W, Luttge A. Modeling and simulation of cement hydration kinetics and micro structure development. Modeling and simulation of cement hydration kinetics and micro structure development, 2011, 41, 1257–1278.
Makar J M, Chan G W. Growth of cement hydration products on single-walled carbon nanotubes. Growth of cement hydration products on single-walled carbon nanotubes, 2009, 92, 1303–1310.
Wang X P, Ye J D, Wang Y J, Chen L. Reinforcement of calcium phosphate cement by bio-mineralized carbon na-notube. Reinforcement of calcium phosphate cement by bio-mineralized carbon na-notube, 2007, 90, 962–964.
Zhao L P, Gao L. Novel in situ synthesis of MWNTs-hydroxyapatite composites. Novel in situ synthesis of MWNTs-hydroxyapatite composites, 2004, 42, 423–426.
Soudee E, Pera J. Mechanism of setting reaction in magnesia-phosphate cements. Mechanism of setting reaction in magnesia-phosphate cements, 2000, 30, 315–321.
Espanol M, Perez R A, Montufar E B, Marichal C, Sacco A, Ginebra M P. Intrinsic porosity of calcium phosphate cements and its significance for drug delivery and tissue engineering applications. Intrinsic porosity of calcium phosphate cements and its significance for drug delivery and tissue engineering applications, 2009, 5, 2752–2762.
Hou D S, Yan H D, Zhang J R, Wang P G, Li Z J. Experimental and computational investigation of magnesium phosphate cement mortar. Experimental and computational investigation of magnesium phosphate cement mortar, 2016, 112, 331–342.
Nadiv R, Vasilyev G, Shtein M, Peled A, Zussman E, Regev O. The multiple roles of a dispersant in nanocomposite systems. The multiple roles of a dispersant in nanocomposite systems, 2016, 133, 192–199.
Kroustalli A A, Kourkouli S N, Deligianni D D. Cellular function and adhesion mechanisms of human bone marrow mesenchymal stem cells on multi-walled carbon nanotubes. Cellular function and adhesion mechanisms of human bone marrow mesenchymal stem cells on multi-walled carbon nanotubes, 2013, 41, 2655–2665.
Author information
Authors and Affiliations
Corresponding author
Rights and permissions
About this article
Cite this article
Esnaashary, M.H., Khavandi, A., Rezaie, H.R. et al. Mg-P/c-SWCNT Bone Cement: The Effect of Filler on Setting Behavior, Compressive Strength and Biocompatibility. J Bionic Eng 17, 100–112 (2020). https://doi.org/10.1007/s42235-020-0008-5
Published:
Issue Date:
DOI: https://doi.org/10.1007/s42235-020-0008-5