Abstract
The selection criteria for biomaterials include the material’s properties and biocompatibility, and the ability to fabricate the desired shapes. Bulk metallic glasses (BMGs) are relative newcomers in the field of biomaterials but they exhibit an excellent combination of properties and processing capabilities desired for versatile implant applications. To further evaluate the suitability of BMGs for biomedical applications, we analyzed the biological responses they elicited in vitro and in vivo. The BMGs promoted cell adhesion and growth in vitro and induced improved foreign body responses in vivo suggesting their potential use as biomaterials. Because of the BMGs’ flexible chemistry, atomic structure, and surface topography, they offer a unique opportunity to fabricate complex implants and devices with a desirable biological response from a material with superior properties over currently used metallic biomaterials.
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References
E. Baden, “Prosthetic Therapy of Congenital and Aquired Clefts on the Palate: An Historical Essay,” J. Hist. Med. Alld. Sci., X(3) (1955), pp. 290–301; doi: 10.1093/jhmas/X.3.290.
W.L. Johnson, “Bulk Glass-forming Metallic Alloys: Science and Technology,” MRS Bulletin, 24(10) (1999), pp. 42–56.
J. Schroers and N. Paton, “Amorphous Metal Alloys Form Like Plastics,” Advanced Materials & Processes, 164(1) (2006), pp. 61–63.
C.A. Schuh, T.C. Hufnagel, and U. Ramamurty, “Overview No.144—Mechanical Behavior of Amorphous Alloys,” Acta Materialia, 55(12) (2007), pp. 4067–4109.
M.F. Ashby and A.L. Greer, “Metallic Glasses as Structural Materials,” Scripta Materialia, 54(3) (2006), pp. 321–326.
A. Inoue, T. Zhang, and T. Masumoto, “Zr-Al-Ni Amorphous-Alloys with High Glass-Transition Temperature and Significant Supercooled Liquid Region,” Materials Transactions JIM, 31(3) (1990), pp. 177–183.
K. Jin and J.F. Loffler, “Bulk Metallic Glass Formation in Zr-Cu-Fe-Al Alloys,” Applied Physics Letters, 86(24) (2005), 241909.
A. Peker and W.L. Johnson, “A Highly Processable Metallic-Glass—Zr41.2Ti13.8Cu12.5Ni10.0Be22.5,” Applied Physics Letters, 63(17) (1993), pp. 2342–2344.
V. Ponnambalam, S.J. Poon, and G.J. Shiflet, “Fe-Mn-Cr-Mo-(Y,Ln)-C-B (Ln = lanthanides) Bulk Metallic Glasses as Formable Amorphous Steel Alloys,” J. Materials Research, 19(10) (2004), pp. 3046–3052.
Z.P. Lu et al., “Structural Amorphous Steels,” Physical Review Letters, 92(24) (2004), 245503.
Q.S. Zhang, W. Zhang, and A. Inoue, “New Cu-Zr-based Bulk Metallic Glasses with Large Diameters of up to 1.5 cm,” Scripta Materialia, 55(8) (2006), pp. 711–713.
D.H. Xu et al., “Formation and Properties of New Ni-based Amorphous Alloys with Critical Casting Thickness up to 5 mm,” Acta Materialia, 52(12) (2004), pp. 3493–3497.
X.H. Lin and W.L. Johnson, “Formation of Ti-Zr-Cu-Ni Bulk Metallic Glasses,” J. Applied Physics, 78(11) (1995), pp. 6514–6519.
A. Inoue et al., “Mg-Cu-Y Amorphous-Alloys with High Mechanical Strengths Produced by a Metallic Mold Casting Method,” Materials Transactions JIM, 32(7) (1991), pp. 609–616.
N. Nishiyama and A. Inoue, “Supercooling Investigation and Critical Cooling Rate for Glass Formation in P-Cu-Ni-P Alloy,” Acta Materialia, 47(5) (1999), pp. 1487–1495.
J. Schroers et al., “Gold Based Bulk Metallic Glass,” Applied Physics Letters, 87(6) (2005), pp. 061912.
J. Schroers and W.L. Johnson, “Highly Processable Bulk Metallic Glass-forming Alloys in the Pt-Co-Ni-Cu-P System,” Applied Physics Letters, 84(18) (2004), pp. 3666–3668.
C.N. Elias et al., “Biomedical Applications of Titanium and Its Alloys,” JOM, 60(3) (2008), pp. 46–49.
M.L. Morrison et al., “The Electrochemical Evaluation of a Zr-based Bulk Metallic Glass in a Phosphate-buffered Saline Electrolyte,” J. Biomedical Materials Research Part A, 74A(3) (2005), pp. 430–438.
S. Buzzi et al., “Cytotoxicity of Zr-based Bulk Metallic Glasses,” Intermetallics, 14(7) (2006), pp. 729–734.
L. Liu et al., “Formation and Biocompatibility of Ni-free Zr60Nb5Cu20Fe5Al Bulk Metallic Glass,” Materials Transactions, 48(7) (2007), pp. 1879–1882.
F. Variola et al., “Improving Biocompatibitity of Implantable Metals by Nanoscale Modification of Surfaces: An Overview of Strategies, Fabrication Methods, and Challenges,” Small, 5(9) (2009), pp. 996–1006.
T. Waniuk, J. Schroers, and W.L. Johnson, “Timescales of Crystallization and Viscous Flow of the Bulk Glass-forming Zr-Ti-Ni-Cu-Be Alloys,” Physical Review B, 67(18) (2003), p. 184203.
S.M. Jay et al., “Foreign Body Giant Cell Formation is Preceded by Lamellipodia Formation and Can be Attenuated by Inhibition of Rac1 Activation,” American Journal of Pathology, 171(2) (2007), pp. 632–640.
W.M. Tian and T.R. Kyriakides, “Thrombospondin 2-null Mice Display an Altered Brain Foreign Body Response to Polyvinyl Alcohol Sponge Implants,” Biomedical Materials, 4(1) (2009), p. 015010.
T.R. Kyriakides et al., “Mice that Lack the Angiogenesis Inhibitor, Thrombospondin 2, Mount an Altered Foreign Body Reaction Characterized by Increased Vascularity,” Proceedings of the National Academy of Sciences of the United States of America, 96(8) (1999), pp. 4449–4454.
D.D. Deligianni et al., “Effect of Surface Roughness of the Titanium Alloy Ti-6Al-4V on Human Bone Marrow Cell Response and on Protein Adsorption,” Biomaterials, 22(11) (2001), pp. 1241–1251.
A. Curtis and C. Wilkinson, “Topographical Control of Cells,” Biomaterials, 18(24) (1997), pp. 1573–1583.
I. Degasne et al., “Effects of Roughness, Fibronectin and Vitronectin on Attachment, Spreading, and Proliferation of Human Osteoblast-like Cells (Saos-2) on Titanium Surfaces,” Calcified Tissue International, 64(6) (1999), pp. 499–507.
J.M. Anderson, A. Rodriguez, and D.T. Chang, “Foreign Body Reaction to Biomaterials,” Seminars in Immunology, 20(2) (2008), pp. 86–100.
T.R. Kyriakides et al., “Altered Extracellular Matrix Remodeling and Angiogenesis in Sponge Granulomas of Thrombospondin 2-null Mice,” American Journal of Pathology, 159(4) (2001), pp. 1255–1262.
D. Bogdanski et al., “Easy Assessment of the Biocompatibility of Ni-Ti Alloys by in Vitro Cell Culture Experiments on a Functionally Graded Ni-NiTi-Ti Material,” Biomaterials, 23(23) (2002), pp. 4549–4555.
J. Choi et al., “Calcium Phosphate Coating of Nickel-titanium Shape-memory Alloys, Coating Procedure and Adherence of Leukocytes and Platelets,” Biomaterials, 24(21) (2003), pp. 3689–3696.
J. Schroers, “The Superplastic Forming of Bulk Metallic Glasses,” JOM, 57(5) (2005), pp. 35–39.
C.J. Gilbert, R.O. Ritchie, and W.L. Johnson, “Fracture Toughness and Fatigue-crack Propagation in a Zr-Ti-Ni-Cu-Be Bulk Metallic Glass,” Applied Physics Letters, 71(4) (1997), pp. 476–478.
J. Schroers et al., “Transition from Nucleation Controlled to Growth Controlled Crystallization in Pd43Ni10Cu27P20 Melts,” Acta Materialia, 49(14) (2001), pp. 2773–2781.
J. Schroers, Y. Wu, and W.L. Johnson, “Heterogeneous Influences on the Crystallization of Pd43Ni10Cu27P20,” Philosophical Magazine a-Physics of Condensed Matter Structure Defects and Mechanical Properties, 82(6) (2002), pp. 1207–1217.
A. Wiest et al., “Zr-Ti-based Be-bearing Glasses Optimized for High Thermal Stability and Thermoplastic Formability,” Acta Materialia, 56(11) (2008), pp. 2625–2630.
J. Schroers et al., “Gold Based Bulk Metallic Glass,” Applied Physics Letters, 87(6) (2005), p. 61912.
J. Schroers, “On the Formability of Bulk Metallic Glass in its Supercooled Liquid State,” Acta Materialia, 56(3) (2008), pp. 471–478.
G. Kumar, H.X. Tang, and J. Schroers, “Nanomoulding with Amorphous Metals,” Nature, 457(7231) (2009), pp. 868–U128.
R. Busch, J. Schroers, and W.H. Wang, “Thermodynamics and Kinetics of Bulk Metallic Glass,” MRS Bulletin, 32(8) (2007), pp. 620–623.
J. Schroers, Q. Pham, and A. Desai, “Thermoplastic Forming of Bulk Metallic Glass—A Technology for MEMS and Microstructure Fabrication,” J. Microelectromechanical Systems, 16(2) (2007), pp. 240–247.
J. Schroers et al., “Blow Molding of Bulk Metallic Glass,” Scripta Materialia, 57(4) (2007), pp. 341–344.
J. Schroers et al., “Synthesis Method for Amorphous Metallic Foam,” J. Applied Physics, 96(12) (2004), pp. 7723–7730.
M.D. Demetriou et al., “High Porosity Metallic Glass Foam: A Powder Metallurgy Route,” Applied Physics Letters, 91(16) (2007), p. 161903.
T. Wada et al., “Supercooled Liquid Foaming of a Zr-Al-Cu-Ag Bulk Metallic Glass Containing Pressurized Helium Pores,” Materials Letters, 63(11) (2009), pp. 858–860.
A. Kurella and N.B. Dahotre, “Review Paper: Surface Modification for Bioimplants: The Role of Laser Surface Engineering,” J. Biomaterials Applications, 20(1) (2005), pp. 5–50.
J. Tan and W.M. Saltzman, “Topographical Control of Human Neutrophil Motility on Micropatterned Materials with Various Surface Chemistry,” Biomaterials, 23(15) (2002), pp. 3215–3225.
J. Tan and W.M. Saltzman, “Biomaterials with Hierarchically Defined Micro- and Nanoscale Structure,” Biomaterials, 25(17) (2004), pp. 3593–3601.
N. Nath et al., “Surface Engineering Strategies for Control of Protein and Cell Interactions,” Surface Science, 570(1–2) (2004), pp. 98–110.
C.C. Berry et al., “The Influence of Microscale Topography on Fibroblast Attachment and Motility,” Biomaterials, 25(26) (2004), pp. 5781–5788.
H. Choi-Yim et al., “Quasistatic and Dynamic Deformation of Tungsten Reinforced Zr57Nb5Al10Cu15.4Ni12.6 Bulk Metallic Glass Matrix Composites,” Scripta Materialia, 45(9) (2001), pp. 1039–1045.
P. Roach et al., “Modern Biomaterials: A Review—Bulk Properties and Implications of Surface Modifications,” J. Materials Science-Materials in Medicine, 18(7) (2007), pp. 1263–1277.
N. Melikian and W. Wijns, “Drug-eluting Stents: A Critique,” Heart, 94(2) (2008), pp. 145–152.
T.F. Luscher et al., “Drug-eluting Stent and Coronary Thrombosis-Biological Mechanisms and Clinical Implications,” Circulation, 115(8) (2007), pp. 1051–1058.
V.S. Polikov, P.A. Tresco, and W.M. Reichert, “Response of Brain Tissue to Chronically Implanted Neural Electrodes,” J. Neuroscience Methods, 148(1) (2005), pp. 1–18.
S. Takeuchi et al., “3D Flexible Multichannel Neural Probe Array,” J. Micromechanics and Microengineering, 14(1) (2004), pp. 104–107.
S. Takeuchi et al., “Parylene Flexible Neural Probes Integrated with Microfluidic Channels,” Lab on a Chip, 5(5) (2005), pp. 519–523.
A. Completo, F. Fonseca, and J.A. Simoes, “Strain Shielding in Proximal Tibia of Stemmed Knee Prosthesis: Experimental Study,” J. Biomechanics, 41(3) (2008), pp. 560–566.
B.V. Krishna et al., “Engineered Porous Metals for Implants,” JOM, 60(5) (2008), pp. 45–48.
M.F. Ashby, “The Mechanical Properties of Cellular Solids,” Metallurgical and Materials Transactions A, 14A (1983), pp. 1755–1769.
A.H. Brothers and D.C. Dunand, “Porous and Foamed Amorphous Metals,” MRS Bulletin, 32(8) (2007), pp. 639–643.
C.E. Campbell and A.F. Von Recum, “Microtopography and Soft Tissue Response,” J. Invest. Surg., 2 (1989), pp. 51–74.
A.H. Brothers and D.C. Dunand, “Syntactic Bulk Metallic Glass Foam,” Applied Physics Letters, 84(7) (2004), pp. 1108–1110.
T. Wada and A. Inoue, “Formation of Porous Pd-based Bulk Glassy Alloys by a High Hydrogen Pressure Melting-Water Quenching Method and Their Mechanical Properties,” Materials Transactions, 45(8) (2004), pp. 2761–2765.
J. Jayaraj et al., “Nanometer-sized Porous Ti-based Metallic Glass,” Scripta Materialia, 55(11) (2006), pp. 1063–1066.
J. Schroers, C. Veazey, and W.L. Johnson, “Amorphous Metallic Foam,” Applied Physics Letters, 82(3) (2003), pp. 370–372.
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Schroers, J., Kumar, G., Hodges, T.M. et al. Bulk metallic glasses for biomedical applications. JOM 61, 21–29 (2009). https://doi.org/10.1007/s11837-009-0128-1
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DOI: https://doi.org/10.1007/s11837-009-0128-1