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Zinc, magnesium and tantalum for biomedical applications: a comprehensive review
Author(s):
1. Aditya D. Khatale: School of Mechanical Engineering, Dr. Vishwanath Karad MIT World Peace University,Pune,India
2. Chinmay Karlekar: School of Mechanical Engineering, Dr. Vishwanath Karad MIT World Peace University,Pune,India
3. Vasuudhaa Sonawane: School of Mechanical Engineering, Dr. Vishwanath Karad MIT World Peace University,Pune,India
4. Puskaraj D. Sonawwanay: School of Mechanical Engineering, Dr. Vishwanath Karad MIT World Peace University,Pune,India
Abstract:
The historical development and biomedical applications of magnesium, tantalum, and zinc are examined in this integrated study. It traces the development of magnesium from its use in military applications through its integration into many businesses, with an emphasis on its use in orthopaedic implants. Along with early attempts and failures in orthopaedic implantation, the mechanical properties of magnesium alloys suitable for biodegradable osteosynthetic materials are investigated. Clinical cases highlighting the successes and difficulties of magnesium implants in bone restoration are presented. Magnesium alloys have recently played important roles in biomedicine, particularly in stents and scaffolds. This analysis highlights their biocompatibility and corrosion behaviour. The numerous biomedical applications of tantalum and zinc, such as those in implants, surgical equipment, and drug delivery, are then discussed. Tantalum's porosity, biocompatibility, and biomechanical qualities make it the ideal material for implants, producing positive results in bone, tissue, and dental applications. Zinc's robust antibacterial characteristics and promise in targeted drug release are highlighted. Innovative manufacturing techniques, composite optimisation, surface alterations, and thorough clinical assessments are among the future directions. Key areas of interest include standardised testing, tissue interactions, and regulatory frameworks. This paper highlights the crucial contributions of tantalum, magnesium, and zinc to the development of biomedical engineering and provides insights for improved patient care, innovation, and therapeutic efficacy.
Page(s): 772-796
DOI: DOI not available
Published: Journal: ARPN Journal of Engineering and Applied Sciences, Volume: 19, Issue: 12, Year: 2024
Keywords:
Magnesium , implants , Zinc , Biomedical applications , alloys , tantalum
References:
[1] Kawamura H.,Ito A.,Miyakawa S.,Layrolle P.,Ojima K.,Ichinose N. .2000 .Stimulatory effect of zincreleasing calcium phosphate implant on bone formation in rabbit femora. , : .
[2] Xu L.,Yu G.,Pan F.,Yang K. .2007 .In vivo corrosion behavior of Mg-Mn-Zn alloy for bone implant application. J Biomed Mater Res A, 83(3) : 703-11.
[3] Kammer C. .2000 .. , : .
[4] Levy G. K.,Goldman J.,Aghion E.,Metals E. .2017 .The prospects of zinc as a structural material for biodegradable implants-a review paper. MDPI AG., 7 : .
[5] Freedman J. D.,Lusic H.,Snyder B. D.,Grinstaff M. W. .2014 .Tantalum oxide nanoparticles for the imaging of articular cartilage using X-ray computed tomography: Visualization of ex vivo/in vivo murine tibia and ex vivo human index finger cartilage. Angewandte, 53 : 8406-10.
[6] Saris N. E.,Mervaala E.,Karppanen H.,Khawaja J. A.,Lewenstam A. .2000 .Magnesium: an update on physiological, clinical and analytical aspects. Clin Chim Acta, 294 : 1-26.
[7] Huse E. C. .1878 .A new ligature? Chicago Med. , 171 : 172.
[8] Chen D.,He Y.,Tao H.,Jiang Y.,Zhang X. .2011 .Biocompatibility of magnesium-zinc alloy in biodegradable orthopedic implants. Int J Mol Med, 28(3) : 343-8.
[9] Cho S. Y.,Chae S. W.,Choi K. W.,Seok H. K.,Kim Y. C.,Jung J. Y. .2013 .Biocompatibility and strength retention of biodegradable Mg-Ca-Zn alloy bone implants. J Biomed Mater Res B Appl Biomater. 101 B(2), : 201-12.
[10] Pan J.,Prabakaran S.,Rajan M. .2019 .In-vivo assessment of minerals substituted hydroxyapatite / poly sorbitol sebacate glutamate (PSSG) composite coating on titanium metal implant for orthopedic implantation. Biomedicine and Pharmacotherapy, 1 : 119.
[11] Shi L.,Yan Y.,Shao C.,Yu K.,Zhang B.,Chen L. .2022 .The influence of yttrium and manganese additions on the degradation and biocompatibility of magnesium-zinc-based alloys: In vitro and in vivo studies. Journal of Magnesium and Alloys., : .
[12] Akinwekomi A. D.,Akhtar F. .2023 .Tunability of mechanical and biodegradation properties of zincbased biomaterial with calcium Micronutrient alloying. J Mech Behav Biomed Mater, 1 : 140.
[13] Sopyan I.,Singh R. .2008 .Development of Zinc Doped Hydroxyapatite for Bone Implant Applications Zn doped HA View project superhydrophobic coating View project [Internet]. , : .
[14] Li H.,Peng Q.,Li X.,Li K.,Fang Z.,D. Z. .2014 .Microstructures, mechanical and cytocompatibility of degradable Mg-Zn based orthopedic biomaterials. Mater Des, 58 : 43-51.
[15] He G.,Wu Y.,Zhang Y.,Zhu Y.,Liu Y.,Li N. .2015 .The addition of Zn to the ternary Mg-Ca-Sr alloys significantly improves their antibacterial properties. J Mater Chem B, 3(32) : 6676-89.
[16] Memarzadeh K.,Sharili A. S.,Huang J.,Rawlinson S. C. F.,Allaker R. P. .2015 .Nanoparticulate zinc oxide as a coating material for orthopedic and dental implants. J Biomed Mater Res A, 103(3) : 981-9.
[17] Balasubramanian P.,Strobel L. A.,Kneser U.,Boccaccini A. R. .2015 .Zinc-containing bioactive glasses for bone regeneration, and dental and orthopedic applications. Biomedical Glasses, 1(1) : 51-69.
[18] Furko M.,Jiang Y.,Wilkins T.,Balázsi C. .2016 .Development and characterization of silver and zinc doped bioceramic layer on metallic implant materials for orthopedic application. Ceram Int, 42(4) : 4924-31.
[19] Sharifi S.,Ebrahimian-Hosseinabadi M.,Dini G.,Toghyani S. .2023 .Magnesium-zinc-graphene oxide nanocomposite scaffolds for bone tissue engineering. Arabian Journal of Chemistry, 16(6) : .
[20] Chen B.,Sun X.,Liu D.,Tian H.,Gao J. .2023 .A novel method combining VAT photopolymerization and casting for the fabrication of biodegradable Zn-1Mg scaffolds with triply periodic minimal surface. J Mech Behav Biomed Mater, 141 : 105763.
[21] Mikkelsen Schrøder K. .2000 .Dental amalgam in voltammetry some preliminary results. Anal Lett, 33(15) : 3253-69.
[22] Leirskar J. .2000 .The effect of zinc oxide-eugenol on the shear bond strength of a commonly used bonding system. Endod Dent Traumatol, 16 : 265-8.
[23] Baumgardner K. R.,Sulfaro M. A. .2001 .The AntiInflammatory Effects of Human Recombinant CopperZinc Superoxide Dismutase on Pulp Inflammation. , : .
[24] Ewoldsen N.,Demke R. S. .2001 .A review of orthodontic cements and adhesives. American Journal of Orthodontics and Dentofacial Orthopedics, 120(1) : 45-8.
[25] Seol H. J.,Shiraishi T.,Tanaka Y.,Miura E.,Hisatsune K.,Kim H. I.,Biomaterials H. I. .2002 .Ordering behaviors and agehardening in experimental AuCu-Zn pseudobinary alloys for dental applications. , 23 : .
[26] Seol H. J.,Shiraishi T.,Tanaka Y.,Miura E.,Hisatsune K. .2003 .High resolution transmission electron microscopy of age-hardenable Au-Cu-Zn alloys for dental applications. Biomaterials, 24(12) : 2061-6.
[27] Walker R. S.,Wade A. G.,Iazzetti G.,Sarkar N. K. .2003 .Galvanic interaction between gold and amalgam: Effect of zinc, time and surface treatments. Journal of the American Dental Association, 134(11) : 1463-7.
[28] Hanson M.,Lobner D. .2004 .In vitro neuronal cytotoxicity of latex and nonlatex orthodontic elastics. American Journal of Orthodontics and Dentofacial Orthopedics, 126(1) : 65-70.
[29] Camps J.,Pommel L.,Bukiet F.,About I. .2004 .Influence of the powder/liquid ratio on the properties of zinc oxide-eugenol-based root canal sealers. Dental Materials, 20(10) : 915-23.
[30] Eduardo Schwartzer . .. , : .
[31] Hoogenraad T. U.,Hattum J. Van Van Den Hamer J. A.,Journal of .1987 .Management of Wilson's disease with zinc sulphate Experience in a series of 27 patients. the Neurological Sciences., 77 : .
[32] Ginevra F.,Biffantib S.,Pagnanb A.,Bioloa R.,Reddi E.,Jori G. .1990 .Delivery of the tumour photosensitizer zinc (II)-phthalocyanine to serum proteins by different liposomes: studies in vitro and in vivo. Cancer Letters., : .
[33] Ameye C. D.,Voorspoels J.,Foreman P.,Tsai J.,Richardson P.,Geresh S. .2001 .Trypsin inhibition, calcium and zinc ion binding of starch-gpoly (acrylic acid) copolymers and starch / poly(acrylic acid) mixtures for peroral peptide drug delivery [Internet]. , 75 : .
[34] Vidal De Aquino E. ,José J.,Rohwedder R.,Facchin I.,Pasquini C.,Talanta C. .2002 .Effect of ethanol in the organic phase on liquid-liquid extraction in monosegmented flow analysis. Determination of zinc in drugs [Internet], 56 : .
[35] Lee S. W.,Kim C. S. .2005 .Magnetic Properties of NiZn Spinel Ferrite Nanoparticles for applications in Biomedicine.. , : .
[36] Lee S. W.,Kim C. S. .2006 .Superparamagnetic properties Ni- Zn ferrite for nano-bio fusion applications. J Magn Magn Mater, 304(1) : .
[37] Primo F. L.,Rodrigues M. M. F. L.,Simioni A. R.,Bentley M. V. L. B.,Morais P. C.,Tedesco A. C. .2008 .In vitro studies of cutaneous retention of magnetic nanoemulsion loaded with zinc phthalocyanine for synergic use in skin cancer treatment. J Magn Magn Mater, 320(14) : .
[38] Beyerle A.,Schulz H.,Kissel T.,Stoeger T. .2009 .Screening strategy to avoid toxicological hazards of inhaled nanoparticles for drug delivery: The use of aquartz and nano zinc oxide particles as benchmark. J Phys Conf Ser, 151 : .
[39] Rasmussen J. W.,Martinez E.,Louka P.,Wingett D. G.,Opinion Expert .2010 .Zinc oxide nanoparticles for selective destruction of tumor cells and potential for drug delivery applications. , 7 : 1063-77.
[40] Xing R.,Liu S. .2012 .Facile synthesis of fluorescent porous zinc sulfide nanospheres and their application. , : .
[41] Horvát G.,Budai-Szucs M.,Berkó S.,Szabó-Révész P.,Soós J.,Facskó A. .2015 .Comparative study of nanosized cross-linked sodium-, linear sodium- and zinc-hyaluronate as potential ocular mucoadhesive drug delivery systems. Int J Pharm, 494(1) : 321-8.
[42] Sawant V. J.,Bamane S. R.,Shejwal R. V.,Patil S. B. .2016 .Comparison of drug delivery potentials of surface functionalized cobalt and zinc ferrite nanohybrids for curcumin in to MCF-7 breast cancer cells. J Magn Magn Mater, 417 : 222-9.
[43] Huang X.,Zheng X.,Xu Z.,Yi C. .2017 .ZnO-based nanocarriers for drug delivery application: From passive to smart strategies. International Journal of Pharmaceutics, 534 : 190-4.
[44] Kim H.,Mondal S.,Bharathiraja S.,Manivasagan P.,Moorthy M. S.,Oh J. .2018 .Optimized Zn-doped hydroxyapatite/doxorubicin bioceramics system for efficient drug delivery and tissue engineering application. Ceram Int, 44(6) : 6062-71.
[45] Zhou M.,Hou T.,Li J.,Yu S.,Yin Z.,M. Z. .2019 .Self- Propelled and Targeted Drug Delivery of Poly (aspartic acid)/Iron-Zinc Microrocket in the Stomach. ACS Nano, 13(2) : 1324-32.
[46] Nigam A.,Pawar S. J.,International Ceramics .2020 .Structural, magnetic, and antimicrobial properties of zinc doped magnesium ferrite for drug delivery applications. Elsevier Ltd, 46 : 4058-64.
[47] Singh T. A.,Das J.,Sil P. C. .2020 .Advances in Colloid and Interface Science. , 286 : .
[48] Jakubowski M.,Kucinska M.,Ratajczak M.,Pokora M.,Murias M.,Voelkel A. .2022 .Zinc forms of faujasite zeolites as a drug delivery system for 6- mercaptopurine. Microporous and Mesoporous Materials, 343 : .
[49] Moaness M.,Mabrouk M.,Ahmed M. M.,Das D. B.,Beherei H. H. .2022 .Novel zinc-silver nanocages for drug delivery and wound healing: Preparation, characterization and antimicrobial activities. Int. J Pharm, 616 : .
[50] Berger M.,Rubinraut E.,Barshack I.,Roth A.,Keren G.,George J. .2004 .Zinc reduces intimal hyperplasia in the rat carotid injury model. Atherosclerosis, 175(2) : 229-34.
[51] Khoshvaght H.,Khoshvaght Di Milano P.,Ghasem Hosseini A.,Khoshvaght M.,Arshadi H.,M. R. H. .2006 .PUMC Zinc/Calcium Phosphate Coating of Nickel- tungsten Amorphous Nanocomposites. Coating Procedure and Release of Nickel in Human Cell Cultures [Internet]. , : .
[52] Chu B. H.,Lee J.,Chang C. Y.,Jiang P.,Tseng Y.,Pearton S. J. Y. .2009 .The study of low temperature hydrothermal growth of ZnO nanorods on stents and its applications of cell adhesion and viability. Appl Surf Sci, 255(20) : 8309-12.
[53] Wang J.,Wang L.,Guan S.,Zhu S.,Ren C.,Hou S. .2010 .Microstructure and corrosion properties of as sub- rapid solidification Mg-Zn-Y-Nd alloy in dynamic simulated body fluid for vascular stent application. J Mater Sci Mater Med, 21(7) : 2001-8.
[54] Hänzi A. C.,Gerber I.,Schinhammer M.,Löffler J. F.,Uggowitzer P. J. .2010 .On the in vitro and in vivo degradation performance and biological response of new biodegradable Mg-Y-Zn alloys. Acta Biomater, 6(5) : 1824-33.
[55] Wang B.,Guan S.,Wang J.,Wang L.,Zhu S.,Schueler B. A.,Parrish T. B.,Lin J. C.,Hammer B. E.,Pangrle B. J.,Ritenour E. R. .1999 .MRI compatibility and visibility assessment of implantable medical devices. Journal of Magnetic Resonance Imaging;, 9 : 1522-603.
[56] . .Blood Compatibility of Metals and Alloys Used in Medical Devic2000. , 20 : .
[57] Sarma Mallela V.,Ilankumaran V.,Rao N. S.,Venkateswara D.,Mallela S . .. Technical Series Trends in Cardiac Pacemaker Batteries. n.d., : .
[58] Kane M. J.,Breen P. P.,Quondamatteo F.,Ólaighin G. .2010 .BION microstimulators: A case study in the engineering of an electronic implantable medical device. Med Eng Phys;, 08 : 7-16.
[59] Piestrzyńska M.,Dominik M.,Kosiel K.,JanczukRichter M.,Szot-Karpińska K.,Brzozowska E. .2019 .Ultrasensitive tantalum oxide nano-coated longperiod gratings for detection of various biological targets. , 03 : 8-15.
[60] Lincoff A. M.,Furst J. G.,Ellis S. G.,Tuch R. J.,Topol E. J. .1997 .Sustained local delivery of dexamethasone by a novel intravascular eluting stent to prevent restenosis in the porcine coronary injury model. J Am Coll Cardiol, 1097(96) : 00584-0.
[61] Arruebo M.,Vilaboa N.,Santamaria J. .2010 .Drug delivery from internally implanted biomedical devices used in traumatology and in orthopedic surgery. Expert Opin Drug Deliv;, 7 : 589-603.
[62] Guo X.,Chen M.,Feng W.,Liang J.,Zhao H.,Tian L. .2011 .Electrostatic self-assembly of multilayer copolymeric membranes on the surface of porous tantalum i m p l a n t s f o r s u s t a i n e d r e l e a s e o f doxorubicin. Int. J Nano medicine;, 6 : 3057-64.
[63] Bose S.,Tarafder S. .2011 .Calcium phosphate ceramic systems in growth factor and drug delivery for bone tissue engineering: A review. Acta Biomater, 11 : 1401-21.
[64] Saha T. K.,Mandal M.,Thunga M.,Chakraborty D.,Ramkumar V. .2013 .Imino phenoxide complexes of niobium and tantalum as catalysts for the polymerization of lactides, ε-caprolactone and ethylene. Dalton Transactions, 42 : 10304-14.
[65] Chen Y.,Song G.,Yi Z.,Chao X.,Liang Y.,C. Y. .2017 .Drug-Loaded Mesoporous Tantalum Oxide Nanoparticles for Enhanced Synergetic Chemoradiotherapy with Reduced Systemic Toxicity. , 13 : .
[66] Liu Y.,Ji X.,Liu J.,Tong W. W. L.,Askhatova D.,Shi J. .2017 .Tantalum Sulfide Nanosheets as a Theranostic Nanoplatform for Computed Tomography Imaging- Guided Combinatorial Chemo-Photothermal Therapy. Adv Funct Mater, 27 : .
[67] Hua L.,Lei T.,Qian H.,Hu Y.,Lei P. .2021 .- printed porous tantalum: recent application in various drug delivery systems to repair hard tissue defects. Expert Opin, 18 : 625-34.
[68] .2021 .. , 1860015 : .
[69] Chakravarty S.,Hix J. M. L.,Wiewiora K. A.,Volk M. C.,Kenyon E.,Shuboni-Mulligan D. D. E. .2020 .Tantalum oxide nanoparticles as versatile contrast agents for X- ray computed tomography. Nanoscale, 12 : 7720-34.
[70] Sukanya R.,Ramki S.,Chen S. M. .2020 .Ultrasound supported synthesis of tantalum carbide integrated functionalized carbon composite for the voltammetric determination of the antibacterial drug nitrofurantoin in pharmaceutical samples. Microchimica Acta, 187 : .
[71] A. Davidson T. M.,Olson T. S. .1990 .Metallic clips as a time/cost saving adjunct to head and neck surgery. , 12(6) : 500-2.
[72] Teitelbaum G. P.,Lin M. C.,Watanabe A. T.,Norfray J. F.,Young T. I.,Bradley W. G. .1990 .Ferromagnetism and MR imaging: safety of carotid vascular clamps. American journal of neuroradiology, 11(2) : 267-72.
[73] Alexander L. .1991 .. Composition of Blade of Electrosurgical Instrument. United States Patent US 5, (030) : 218.
[74] Cardonne S. M.,Kumar P.,Michaluk C. A.,Schwartz H. D. C. A. .1995 .. International Journal of Refractory Metals and Hard Materials, 13(4) : 187-94.
[75] Tsuruta M.,Bito S.,Kimura S.,Kuramoto S.,Tsukagoshi T.,Nakata A.,Suzuta T. .1996 .Inventors; Olympus Optic Co Ltd, assignee. Surgical device for stapling and/or fastening body tissues. United States patent US 5, (582) : 611.
[76] Field F. P.,Sancoff G. E. .2004 .Inventors; Onux Medical Inc, assignee. Surgical suturing instrument and method of use. United States patent US 6, (767) : 352.
[77] Maccauro G.,Muratori Rossi Iommetti P.,Raffaelli F.,Manicone L.,Fabbriciani P. F.,C. P. F. .2009 .An Overview about Biomedical Applications of Micron and Nano Size Tantalum. , 3 : .
[78] Levine B. R.,Sporer S.,Poggie R. A.,Della Valle C. J. R. A.,Jacobs J. J. .2006 .Experimental and clinical performance of porous tantalum in orthopedic surgery. Biomaterials, 04 : 4671-81.
[79] Maccauro G.,Muratori Rossi Iommetti P.,Raffaelli F.,Manicone L.,Fabbriciani P. F.,C. P. F. .2009 .An Overview about Biomedical Applications of Micron and Nano Size Tantalum. , 3 : .
[80] Liu G.,Wang J.,Yang S.,Xu W.,Ye S.,Xia T. .2015 .Effect of a porous tantalum rod on early and intermediate stages of necrosis of the femoral head. Biomedical Materials, 5 : 1748.
[81] Bencharit S.,Byrd W. C.,Altarawneh S.,Hosseini B.,Leong A.,Reside G.,Morelli T.,Offenbacher S. .2014 .Development and applications of porous tantalum trabecular metal‐enhanced titanium dental implants. Clinical implant dentistry and related research, 16(6) : 817-26.
[82] Liu Y.,Bao C.,Wismeijer D.,Wu G. .2015 .The physicochemical/biological properties of porous tantalum and the potential surface modification techniques to improve its clinical application in dental implantology. , 49 : 323-9.
[83] George N.,Nair A. B. .2018 .Porous tantalum. -08-102205- 4, : 00011-8.
[84] Rodríguez-Contreras A.,Guillem-Marti J.,Lopez O.,Manero J. M.,Ruperez E. .2019 .Antimicrobial PHAs coatings for solid and porous tantalum implants. Colloids Surf B Biointerfaces; 182, 06 : .
[85] Liu B.,Yang F.,Wei X.,Zhang X.,Zhang Y.,Wang B. .2019 .An exploratory study of articular cartilage and subchondral bone reconstruction with bone marrow mesenchymal stem cells combined with porous tantalum/Bio-Gide collagen membrane in osteonecrosis of the femoral head. , 02 : 1123-32.
[86] Beline T.,da Silva J. H. D. T.,Matos A. O.,Azevedo Neto N. F A. O.,de Almeida A. B.,Nociti Júnior F. H. A. B. .2019 .Tailoring the synthesis of tantalum-based thin films for biomedical application: Characterization and biological response. , 03 : .
[87] Patel M. S.,McCormick J. R.,Ghasem A.,Huntley S. R.,Gjolaj J. P. .2020 .Tantalum: the next biomaterial in spine surgery. Journal of Spine Surgery, 6(1) : 72.
[88] Chen Y. H.,Chuang W. S.,Huang J. C.,Wang X.,Chou H. S.,Lai Y. J. .2020 .On the biocorrosion and biocompatibility of TiTaNb medium entropy alloy films. Appl Surf Sci; 508, 145307 : .
[89] Li H.,Cai Z.,Li X.,Liu L.,G. L. .2020 .The progress on physicochemical properties and biocompatibility of tantalum-based metal bone implants. SN Appl Sci, 2 : .
[90] Yakovin S.,Dudin S.,Zykova A.,Safonov V.,Kuznetsova T.,Melnikova G.,Nguyen V. T.,Lu S. L.,Song T.,Murdoch B. J.,Fabijanic D. M. .2021 .Institute of Electrical and Electronics Engineers Inc. Proceedings of the 2021 IEEE 11th International Conference Nanomaterials: Applications and Properties. NAP, : .
[91] . .Microstructure, tensile properties and deformation behaviour of a promising bio- applicable new Ti35Zr15Nb25Ta25 medium entropy alloy (MEA).. , : .
[92] Science Materials . .. , : 824.
[93] .2021 .. , 141805 : .
[94] Rodríguez-Lozano F. J. ,Lozano A.,López-García S.,García-Bernal D.,Sanz J. L.,Guerrero-Gironés J. J. L. .2022 .Biomineralization potential and biological properties of a new tantalum oxide (Ta2O5)-containing calcium silicate cement. Clin Oral Investig, 26 : 1427-41.
[95] Putrantyo I.,Anilbhai N.,Vanjani R.,De Vega B. .2021 .Tantalum as a novel biomaterial for bone implant: A literature review. net/JBBBE.5 2, 52 : 55-65.
[96] Huang G.,Pan S. T.,Qiu J. X. .20211 .The clinical application of porous tantalum and its new development for bone tissue engineering. Materials, 14 : .
[97] Mani G.,Porter D.,Grove K.,Collins S.,Ornberg A.,Shulfer R. .2022 .A comprehensive review of biological and materials properties of Tantalum and its alloys. J Biomed Mater Res A;, 37373 : 1291-306.
[98] Soro N.,Brodie E. G.,Alali A.,Kent A. Q.,Dargusch D.,M. S. D. .2022 .Additive manufacturing of biomimetic Titanium-Tantalum lattices for biomedical implant applications. Mater Des, 110688 : .
[99] Lei P.,Qian H.,Zhang T.,Lei T.,Hu Y.,Chen C.,Chen X.,Bi Y.,Huang M.,Cao H.,Qin H. .2022 .Porous tantalum structure integrated on Ti6Al4V base by Laser Powder Bed Fusion for enhanced bony- ingrowth implants: In vitro and in vivo validation. Bioact Mater, 05 : 3-13.
[100] Is Tantalum Less Susceptible to Bacterial Infection? J Funct Biomater Why . .. , : 13.
[101] . .. , : .
[102] Yuan K.,Zhang K.,Yang Y.,Lin Y.,Zhou F.,Mei J. .2022 .Evaluation of interbody fusion efficacy and biocompatibility of a polyetheretherketone / calcium silicate/porous tantalum cage in a goat model. J Orthop Translat, 06 : 109-19.
[103] Huang G.,Pan S. T.,Qiu J. X. .2021 .The osteogenic effects of porous Tantalum and Titanium alloy scaffolds with different unit cell structure. Colloids Surf B Biointerfaces, 112229 : .
[104] Leigheb M.,Veneziano M.,Tortia R.,Bosetti M.,Cochis A.,Rimondini L.,Grassi F. A. .2021 .: e2021025. doi: 10.23750/abm.v92iS3.11757. PMID: 34313658; PMCID: PMC8420826., 26(S3) : .
[105] Okuma T. .2001 .Magnesium and bone strength. Nutrition, 17 : 679-80.
[106] Saris N. E.,Mervaala E.,Karppanen H.,Khawaja J. A.,Lewenstam A. .2000 .Magnesium: an update on physiological, clinical and analytical aspects. Clin Chim Acta, 294 : 1-26.
[107] Jinghuai Z.,Shujuan L.,Ruizhi W.,Legan H.,Z. H. .2018 .Recent developments in high-strength Mg-RE-based alloys: focusing on Mg-Gd and Mg-Y systems. J Magnes and Alloys, 6 : 277-91.
[108] Staiger M. P.,Pietak A. M.,Huadmai J.,Dias G. .2006 .Magnesium and its alloys as orthopedic biomaterials: a review. Biomaterials, 27 : 1728-34.
[109] Jung O.,Smeets R.,Hartjen P. .2019 .Improved in vitro test procedure for full assessment of the cytocompatibility of degradable magnesium based. on ISO 10993-5/-12. Int J Mol Sci, 20 : 255.
[110] Witte F.,Hort N.,Vogt C. .2009 .Degradable materials based on magnesium corrosion. Curr Opin Solid State Mater Sci, 12 : 63-72.
[111] Myrissa A.,Agha N. A.,Lu Y. .2016 .In vitro and in vivo comparison of binary Mg-alloys and pure Mg. Mater Sci Eng, 61 : 865-74.
[112] Lorenz C.,Brunner J. G.,Kollmannsberger P.,Jaafar L. .2009 .Effect of surface pre-treatments on biocompatibility of magnesium. Acta Biomater, 5 : 2783-9.
[113] Groves E. .1913 .An experimental study of the operative treatment of fractures. Br J Surg, 1(3) : 438-501.
[114] McBride E. D. .1938 .Magnesium screw and nail transfixion in fractures. South Med, 31(5) : 508-15.
[115] Zierold A. A. .1924 .Reaction of bone to various metals. Arch Surg, 9(2) : 365-412.
[116] Witte F. .2010 .The history of biodegradable magnesium implants: a review. Acta Biomater, 6 : 1680-92.
[117] Hornberger H.,Virtanen S.,Boccaccini A. R. .2012 .Biomedical coatings on magnesium alloys - a review. Acta Biomater, 8 : 2442-55.
[118] McBride E. D. .1938 .Absorbable metal in bone surgery. JAMA, 111 : 2464-7.
[119] Wong H. M.,Yeung K. W. K.,Lam K. O. .2010 .A biodegradable polymer-based coating to control the performance of magnesium alloy orthopaedic implants. Biomaterials, 31 : 2084-96.
[120] Li J.,Song Y.,Zhang S.,Zhao C.,Zhang F.,Zhang X. .2010 .In vitro responses of human bone marrow stromal cells to a fluoridated hydroxyapatite coated biodegradable Mg-Zn alloy. Biomaterials, 31 : 5782-8.
[121] Stroganov G.,Savitsky E.,Tikhova N.,Terekhova V. F.,Volkov M. V.,Sivash K. M. M. V. .1972 .Magnesium-base alloy for use in bone surgery. US patent 3, (687) : 135.
[122] Hume-Rothery W.,Bowell S. W. .1927 .The system magnesium-cadmium. , 445 : 18.
[123] Thormann U.,Alt V.,Heimann L.,Gasquere C.,Heiss C.,Szalay G. .2015 .The biocompatibility of degradable magnesium interference screws: an experimental study with sheep. Biomed Res Int, : .
[124] Okuma T. .2001 .Magnesium and bone strength. Nutrition, 17 : 679-80.
[125] Seitz J. M.,Eifler R.,Vaughan M.,Seal C.,Hyland M.,Maier H. J. .2014 .Coating systems for biodegradable magnesium applications. , : 374.
[126] Zhao D.,Witte F.,Lu F.,Wang J.,Li J.,Qin L. .2017 .Current status on clinical applications of magnesium-based orthopaedic implants: a review from clinical translational perspective. Biomaterials, 112 : 287-302.
[127] Biber R.,Pauser J.,Bremb M.,Bailab H. J. .2017 .Bioabsorbable metal screws in traumatology: a promising innovation. Trauma Case Reports, 8 : 11-5.
[128] Groves E. .1913 .An experimental study of the operative treatment of fractures. Br J Surg, 1(3) : 438-501.
[129] McBride E. D. .1938 .Magnesium screw and nail transfixion in fractures. South Med, 31(5) : 508-15.
[130] Zierold A. A. .1924 .Reaction of bone to various metals. Arch Surg, 9(2) : 365-412.
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