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Carbon nanostructures for orthopedic medical applications

    Lei Yang

    School of Engineering, Brown University, Providence, RI 02912, USA

    Institute for Molecular and Nanoscale Innovation (IMNI), Brown University, Providence, RI 02912, USA

    ,
    Lijuan Zhang

    Institute for Molecular and Nanoscale Innovation (IMNI), Brown University, Providence, RI 02912, USA

    Department of Chemistry, Brown University, Providence, RI 02912, USA

    &
    Thomas J Webster

    † Author for correspondence

    Department of Orthopaedics, Brown University, Providence, RI 02912, USA.

    Published Online:https://doi.org/10.2217/nnm.11.107

    Carbon nanostructures (including carbon nanofibers, nanostructured diamond, fullerene materials and so forth) possess extraordinary physiochemical, mechanical and electrical properties attractive to bioengineers and medical researchers. In the past decade, numerous developments towards the fabrication and biological studies of carbon nanostructures have provided opportunities to improve orthopedic applications. Therefore, the aim of this article is to provide an up-to-date review on carbon nanostructure advances in orthopedic research. Orthopedic medical device applications of carbon nanotubes/carbon nanofibers and nanostructured diamond (including particulate nanodiamond and nanocrystalline diamond coatings) are emphasized here along with other carbon nanostructures that have promising potential. In addition, widely used fabrication techniques for producing carbon nanostructures in both the laboratory and in industry are briefly introduced. In conclusion, carbon nanostructures have demonstrated tremendous promise for orthopedic medical device applications to date, and although some safety, reliability and durability issues related to the manufacturing and implantation of carbon nanomaterials remain, their future is bright.

    Papers of special note have been highlighted as: ▪ of interest ▪▪ of considerable interest

    Bibliography

    • Shenderova OA, Zhirnov VV, Brenner DW. Carbon nanostructures. Crit. Rev. Solid State27(3–4),227–356 (2002).Crossref, CASGoogle Scholar
    • Hu YH, Shenderova OA, Hu Z, Padgett CW, Brenner DW. Carbon nanostructures for advanced composites. Rep. Prog. Phys.69(6),1847–1895 (2006).Crossref, CASGoogle Scholar
    • Elias KL, Price RL, Webster TJ. Enhanced functions of osteoblasts on nanometer diameter carbon fibers. Biomaterials23(15),3279–3287 (2002).Crossref, Medline, CASGoogle Scholar
    • Balani K, Anderson R, Laha T et al. Plasma-sprayed carbon nanotube reinforced hydroxyapatite coatings and their interaction with human osteoblasts in vitro.Biomaterials28(4),618–624 (2007).Crossref, Medline, CASGoogle Scholar
    • Kobayashi S, Kawai W. Development of carbon nanofiber reinforced hydroxyapatite with enhanced mechanical properties. Compos. Part A-Appl. S.38(1),114–123 (2007).CrossrefGoogle Scholar
    • Meng YH, Tang CY, Tsui CP, Uskokovic PS. Fabrication and characterization of ha-zro2-MWCNT ceramic composites. J. Compos. Mater.44(7),871–882 (2010).Crossref, CASGoogle Scholar
    • Meng DC, Ioannou J, Boccaccini AR. Bioglass-based scaffolds with carbon nanotube coating for bone tissue engineering. J. Mater. Sci-Mater. M.20(10),2139–2144 (2009).Crossref, Medline, CASGoogle Scholar
    • Boccaccini AR, Chicatun F, Cho J et al. Carbon nanotube coatings on bioglass-based tissue engineering scaffolds. Adv. Funct. Mater.17(15),2815–2822 (2007).Crossref, CASGoogle Scholar
    • Marrs B, Andrews R, Rantell T, Pienkowski D. Augmentation of acrylic bone cement with multiwall carbon nanotubes. J. Biomed. Mater. Res. A.77A(2),269–276 (2006).Crossref, CASGoogle Scholar
    • 10  Marrs B, Andrews R, Pienkowski D. Multiwall carbon nanotubes enhance the fatigue performance of physiologically maintained methyl methacrylate-styrene copolymer. Carbon45(10),2098–2104 (2007).Crossref, CASGoogle Scholar
    • 11  Nien YH, Huang CL. The mechanical study of acrylic bone cement reinforced with carbon nanotube. Mater. Sci. Eng. B-Adv.169(1–3),134–137 (2010).Crossref, CASGoogle Scholar
    • 12  Ormsby R, McNally T, Mitchell C, Dunne N. Influence of multiwall carbon nanotube functionality and loading on mechanical properties of pmma/mwcnt bone cements. J. Mater. Sci-Mater. M.21(8),2287–2292 (2010).Crossref, Medline, CASGoogle Scholar
    • 13  Shi XF, Hudson JL, Spicer PP, Tour JM, Krishnamoorti R, Mikos AG. Injectable nanocomposites of single-walled carbon nanotubes and biodegradable polymers for bone tissue engineering. Biomacromolecules7(7),2237–2242 (2006).Crossref, Medline, CASGoogle Scholar
    • 14  Wang ZK, Hu QL, Cai L. Chitosan and multi-walled carbon nanotube composite rods. Chinese J. Polym. Sci.28(5),801–806 (2010).Crossref, CASGoogle Scholar
    • 15  Reis J, Kanagaraj S, Fonseca A et al.In vitro studies of multiwalled carbon nanotube/ultrahigh molecular weight polyethylene nanocomposites with osteoblast-like MG63 cells. Braz. J. Med. Biol. Res.43(5),476–482 (2010).Crossref, Medline, CASGoogle Scholar
    • 16  Lahiri D, Benaduce AP, Rouzaud F et al. Wear behavior and in vitro cytotoxicity of wear debris generated from hydroxyapatite-carbon nanotube composite coating. J. Biomed. Mater. Res. A.96A(1),1–12 (2011).Crossref, CASGoogle Scholar
    • 17  Armentano I, Alvarez-Perez MM, Carmona-Rodriguez B, Gutierrez-Ospina I, Kenny JM, Arzate H. Analysis of the biomineralization process on swnt-cooh and f-swnt films. Mat. Sci. Eng. C-Bio. S.28(8),1522–1529 (2008).Crossref, CASGoogle Scholar
    • 18  Green DE, Longtin JP, Sitharaman B. The effect of nanoparticle-enhanced photoacoustic stimulation on multipotent marrow stromal cells. Acs. Nano.3(8),2065–2072 (2009).Crossref, Medline, CASGoogle Scholar
    • 19  Sato Y, Yokoyama A, Kasai T et al.In vivo rat subcutaneous tissue response of binder-free multi-walled carbon nanotube blocks cross-linked by de-fluorination. Carbon46(14),1927–1934 (2008).Crossref, CASGoogle Scholar
    • 20  Khang D, Sato M, Price RL, Ribbe AE, Webster TJ. Selective adhesion and mineral deposition by osteoblasts on carbon nanofiber patterns. Int. J. Nanomed.1(1),65–72 (2006).Crossref, Medline, CASGoogle Scholar
    • 21  Price RL, Waid MC, Haberstroh KM, Webster TJ. Selective bone cell adhesion on formulations containing carbon nanofibers. Biomaterials24(11),1877–1887 (2003).Crossref, Medline, CASGoogle Scholar
    • 22  Armentano I, Marinucci L, Dottori M et al. Novel poly(L-lactide) PLLA/SWNTs nanocomposites for biomedical applications: Material characterization and biocompatibility evaluation. J. Biomat. Sci-Polym. E.22(4–6),541–556 (2011).Crossref, Medline, CASGoogle Scholar
    • 23  Zhang HL, Chen ZQ. Fabrication and characterization of electrospun PLGA/MWNTs/hydroxyapatite biocomposite scaffolds for bone tissue engineering. J. Bioact. Compat. Pol.25(3),241–259 (2010).CrossrefGoogle Scholar
    • 24  Wang W, Watari F, Omori M et al. Mechanical properties and biological behavior of carbon nanotube/polycarbosilane composites for implant materials. J. Biomed. Mater. Res. B.82B(1),223–230 (2007).Crossref, CASGoogle Scholar
    • 25  Sitharaman B, Shi XF, Walboomers XF et al.In vivo biocompatibility of ultra-short single-walled carbon nanotube/biodegradable polymer nanocomposites for, bone tissue engineering. Bone43(2),362–370 (2008).Crossref, Medline, CASGoogle Scholar
    • 26  Lewinski N, Colvin V, Drezek R. Cytotoxicity of nanoparticles. Small4(1),26–49 (2008).Crossref, Medline, CASGoogle Scholar
    • 27  Singh MK, Gracio J, Leduc P et al. Integrated biomimetic carbon nanotube composites for in vivo systems. Nanoscale2(12),2855–2863 (2010).Crossref, Medline, CASGoogle Scholar
    • 28  Baker SE, Cai W, Lasseter TL, Weidkamp KP, Hamers RJ. Covalently bonded adducts of deoxyribonucleic acid (DNA) oligonucleotides with single-wall carbon nanotubes: synthesis and hybridization. Nano. Lett.2(12),1413–1417 (2002).Crossref, CASGoogle Scholar
    • 29  Balavoine F, Schultz P, Richard C, Mallouh V, Ebbesen TW, Mioskowski C. Helical crystallization of proteins on carbon nanotubes: a first step towards the development of new biosensors. Angew. Chem. Int. Edit.38(13–14),1912–1915 (1999).Crossref, Medline, CASGoogle Scholar
    • 30  Lin Y, Allard LF, Sun YP. Protein-affinity of single-walled carbon nanotubes in water. J. Phys. Chem. B.108(12),3760–3764 (2004).Crossref, CASGoogle Scholar
    • 31  Wilson CJ, Clegg RE, Leavesley DI, Pearcy MJ. Mediation of biomaterial-cell interactions by adsorbed proteins: a review. Tissue Engi.11(1–2),1–18 (2005).▪▪ A thorough review on the mediation of cell responses to biomaterials by adsorbed proteins.Crossref, Medline, CASGoogle Scholar
    • 32  Firkowska I, Godehardt E, Giersig M. Interaction between human osteoblast cells and inorganic two-dimensional scaffolds based on multiwalled carbon nanotubes: A quantitative afm study. Adv. Funct. Mater.18(23),3765–3771 (2008).Crossref, CASGoogle Scholar
    • 33  Price RL, Ellison K, Haberstroh KM, Webster TJ. Nanometer surface roughness increases select osteoblast adhesion on carbon nanofiber compacts. J. Biomed. Mater. Res. A.70A(1),129–138 (2004).Crossref, CASGoogle Scholar
    • 34  Tutak W, Chhowalla M, Sesti F. The chemical and physical characteristics of single-walled carbon nanotube film impact on osteoblastic cell response. Nanotechnology21(31),315102 (2010).Crossref, MedlineGoogle Scholar
    • 35  Sirivisoot S, Yao C, Xiao X, Sheldon BW, Webster TJ. Greater osteoblast functions on multiwalled carbon nanotubes grown from anodized nanotubular titanium for orthopedic applications. Nanotechnology18(36),365102 (2007).CrossrefGoogle Scholar
    • 36  Sirivisoot S, Yao C, Xiao X, Sheldon BW, Webster TJ. Developing biosensors for monitoring orthopedic tissue growth. Mater. Res. Soc. Sympos. Proce.950,7 (2007).Google Scholar
    • 37  Sirivisoot S, Webster TJ. Multiwalled carbon nanotubes enhance electrochemical properties of titanium to determine in situ bone formation. Nanotechnology19(29),295101 (2008).Crossref, MedlineGoogle Scholar
    • 38  Xing Y, Dai LM. Nanodiamonds for nanomedicine. Nanomedicine (Lond.)4(2),207–218 (2009).Link, CASGoogle Scholar
    • 39  Zhang HY, Blunt L, Jiang XQ, Brown L, Barrans S, Zha Y. Femoral stem wear in cemented total hip replacement. P I Mech. Eng. H.222(H5),583–592 (2008).Crossref, MedlineGoogle Scholar
    • 40  Maccauro G, Piconi C, Pilloni L, Proietti L, De Santis V, De Santis E. Surface analysis of a femoral stem after failed total hip replacement. Int. Orthop.24(4),231–233 (2000).Crossref, Medline, CASGoogle Scholar
    • 41  Gruen DM. Nanocrystalline diamond films. Ann. Rev. Mater. Sci.29,211–259 (1999).▪ A classic review on fabrication methods, structures, properties and applications of nanocrystalline diamond films.Crossref, CASGoogle Scholar
    • 42  Askari SJ. Tribological characteristics of nanocrystalline diamond films grown on titanium. Surf. Eng.25(6),482–486 (2009).Crossref, CASGoogle Scholar
    • 43  Okroj W, Kaminska M, Klimek L, Szymanski W, Walkowiak B. Blood platelets in contact with nanocrystalline diamond surfaces. Diam. Relat. Mater.15(10),1535–1539 (2006).Crossref, CASGoogle Scholar
    • 44  Fries MD, Vohra YK. Properties of nanocrystalline diamond thin films grown by MPCVD for biomedical implant purposes. Diam. Relat. Mater.13(9),1740–1743 (2004).Crossref, CASGoogle Scholar
    • 45  Zheng CL, Qi R, Yang WB. MPACVD nanocrystalline diamond for biomedical applications. Key Eng. Mat.280–283,1595–1598 (2005).Crossref, CASGoogle Scholar
    • 46  Bajaj P, Akin D, Gupta A et al. Ultrananocrystalline diamond film as an optimal cell interface for biomedical applications. Biomed. Microdevices9(6),787–794 (2007).Crossref, Medline, CASGoogle Scholar
    • 47  Grausova L, Kromka A, Bacakova L, Potocky S, Vanecek M, Lisa V. Bone and vascular endothelial cells in cultures on nanocrystalline diamond films. Diam. Relat. Mater.17(7–10),1405–1409 (2008).Crossref, CASGoogle Scholar
    • 48  Amaral M, Dias AG, Gomes PS et al. Nanocrystalline diamond: in vitro biocompatibility assessment by MG63 and human bone marrow cells cultures. J. Biomed. Mater. Res. A.87A(1),91–99 (2008).Crossref, CASGoogle Scholar
    • 49  Yang L, Sheldon BW, Webster TJ. The impact of diamond nanocrystallinity on osteoblast functions. Biomaterials30(20),3458–3465 (2009).▪ First study reported on topography-mediated osteoblast responses to nanocrystalline diamond.Crossref, Medline, CASGoogle Scholar
    • 50  Yang L, Sheldon BW, Webster TJ. Orthopedic nano diamond coatings: Control of surface properties and their impact on osteoblast adhesion and proliferation. J. Biomed. Mater. Res. A.91A(2),548–556 (2009).Crossref, CASGoogle Scholar
    • 51  Kalbacova M, Rezek B, Baresova V, Wolf-Brandstetter C, Kromka A. Nanoscale topography of nanocrystalline diamonds promotes differentiation of osteoblasts. Acta. Biomater.5(8),3076–3085 (2009).Crossref, Medline, CASGoogle Scholar
    • 52  Broz A, Baresova V, Kromka A, Rezek B, Kalbacova M. Strong influence of hierarchically structured diamond nanotopography on adhesion of human osteoblasts and mesenchymal cells. Phys. Status Solidi. A.206(9),2038–2041 (2009).Crossref, CASGoogle Scholar
    • 53  Rodrigues AA, Baranauskas V, Ceragioli HJ, Peterlevitz AC, Belangero WD. In vivo preliminary evaluation of bone-microcrystalline and bone-nanocrystalline diamond interfaces. Diam. Relat. Mater.19(10),1300–1306 (2010).Crossref, CASGoogle Scholar
    • 54  Yang L, Chinthapenta V, Li Q et al. Understanding osteoblast responses to stiff nanotopographies through experiments and computational simulations. J. Biomed. Mater. Res. A97A(4),375–382 (2011).▪ One of the innovitive studies using a computational simulation approach to understand the mechanisms behind nanotopography-enhanced cell functions.Crossref, CASGoogle Scholar
    • 55  Kloss FR, Gassner R, Preiner J et al. The role of oxygen termination of nanocrystalline diamond on immobilisation of BMP-2 and subsequent bone formation. Biomaterials29(16),2433–2442 (2008).Crossref, Medline, CASGoogle Scholar
    • 56  Clem WC, Chowdhury S, Catledge SA et al. Mesenchymal stem cell interaction with ultra-smooth nanostructured diamond for wear-resistant orthopaedic implants. Biomaterials29(24–25),3461–3468 (2008).Crossref, Medline, CASGoogle Scholar
    • 57  Klauser F, Hermann M, Steinmuller-Nethl D et al. Direct and protein-mediated cell attachment on differently terminated nanocrystalline diamond. Chem. Vapor. Depos.16(1–3),42–49 (2010).Crossref, CASGoogle Scholar
    • 58  Lechleitner T, Klauser F, Seppi T et al. The surface properties of nanocrystalline diamond and nanoparticulate diamond powder and their suitability as cell growth support surfaces. Biomaterials29(32),4275–4284 (2008).Crossref, Medline, CASGoogle Scholar
    • 59  Pareta R, Yang L, Kothari A et al. Tailoring nanocrystalline diamond coated on titanium for osteoblast adhesion. J. Biomed. Mater. Res. A.95(1),129–136 (2010).Crossref, MedlineGoogle Scholar
    • 60  Jakubowski W, Bartosz G, Niedzielski P, Szymanski W, Walkowiak B. Nanocrystalline diamond surface is resistant to bacterial colonization. Diam. Relat. Mater.13(10),1761–1763 (2004).Crossref, CASGoogle Scholar
    • 61  Lewis JS, Gittard SD, Narayan RJ et al. Assessment of microbial biofilm growth on nanocrystalline diamond in a continuous perfusion environment. J. Manuf. Sci. E-T. Asme.132(3),0309191–0309197 (2010).CrossrefGoogle Scholar
    • 62  Pramatarova L, Pecheva E, Stavrev S et al. Artificial bones through nanodiamonds. J. Optoelectron. Adv. M.9(1),236–239 (2007).CASGoogle Scholar
    • 63  Pecheva E, Pramatarova L, Fingarova D et al. Advanced materials for metal implant coatings. J. Optoelectron. Adv. M.11(9),1323–1326 (2009).CASGoogle Scholar
    • 64  Mitura S. Nanodiamonds. J. Ach. Mater. Manuf. Eng.24(1),166–171 (2007).Google Scholar
    • 65  Schrand AM, Hens Sac, Shenderova OA. Nanodiamond particles: properties and perspectives for bioapplications. Crit. Rev. Solid. State34(1–2),18–74 (2009).Crossref, CASGoogle Scholar
    • 66  Huang HJ, Pierstorff E, Osawa E, Ho D. Protein-mediated assembly of nanodiamond hydrogels into a biocompatible and biofunctional multilayer nanofilm. ACS Nano.2(2),203–212 (2008).Crossref, Medline, CASGoogle Scholar
    • 67  Kharisov BI, Kharissova OV, Chavez-Guerrero L. Synthesis techniques, properties, and applications of nanodiamonds. Synth. React. Inorg. M.40(2),84–101 (2010).▪▪ One of the latest reviews on the synthesis methods, structure, physical and chemical properties and functionalization of nanodiamonds, also reviewing their applications in medicine, electrochemistry, materials chemistry and technology.Crossref, CASGoogle Scholar
    • 68  Cheng CY, Perevedentseva E, Tu JS et al. Direct and in vitro observation of growth hormone receptor molecules in a549 human lung epithelial cells by nanodiamond labeling. Appl. Phys. Lett.90(16),163903–163903-3 (2007).CrossrefGoogle Scholar
    • 69  Shimkunas RA, Robinson E, Lam R et al. Nanodiamond-insulin complexes as ph-dependent protein delivery vehicles. Biomaterials30(29),5720–5728 (2009).Crossref, Medline, CASGoogle Scholar
    • 70  Mousinho AP, Mansano RD, Salvadori MC. Nanostructured diamond-like carbon films characterization. J. Alloy Comp.495(2),620–624 (2010).Crossref, CASGoogle Scholar
    • 71  Hauert R. A review of modified dlc coatings for biological applications. Diam. Relat. Mater.12(3–7),583–589 (2003).Crossref, CASGoogle Scholar
    • 72  Polcar T, Vitu T, Cvrcek L, Novak R, Vyskocil J, Cavaleiro A. Tribological behaviour of nanostructured Ti-C:H coatings for biomedical applications. Solid State Sci.11(10),1757–1761 (2009).Crossref, CASGoogle Scholar
    • 73  Yasumaru N, Miyazaki K, Kiuchi J. Control of tribological properties of diamond-like carbon films with femtosecond-laser-induced nanostructuring. Appl. Surf . Sci.254(8),2364–2368 (2008).Crossref, CASGoogle Scholar
    • 74  Ma WJ, Ruys AJ, Zreiqat H et al. The biocompatibility of diamond-like carbon nano films. Presented at: 2006 International Conference On Nanoscience and Nanotechnology. Brisbane, Qld, Australia, 3–7 July 2006.Google Scholar
    • 75  Dorner-Reisel A, Schürer C, Nischan C, Klemm V, Irmer G, Müller E. Calcium-oxygen modified amorphous and nanocrystalline carbon layers as biomaterials. Biomed. Tech. (Berl).47(Suppl. 1, Pt 1),393–396 (2002).Crossref, MedlineGoogle Scholar
    • 76  Grausova L, Vacik J, Vorlicek V et al. Fullerene C-60 films of continuous and micropatterned morphology as substrates for adhesion and growth of bone cells. Diam. Relat. Mater.18(2–3),578–586 (2009).Crossref, CASGoogle Scholar
    • 77  Vandrovcova M, Vacik J, Svorcik V et al. Fullerene C-60 and hybrid C-60/Ti films as substrates for adhesion and growth of bone cells. Phy. Status Solid A-Appl. Mater. Sci.205(9),2252–2261 (2008).Crossref, CASGoogle Scholar
    • 78  Gonzalez KA, Wilson LJ, Wu W, Nancollas GH. Synthesis and in vitro characterization of a tissue-selective fullerene: Vectoring C(60)(oh)(16)ambp to mineralized bone. Bioorg. Med. Chem.10(6),1991–1997 (2002).Crossref, Medline, CASGoogle Scholar
    • 79  Mirakyan AL, Wilson LJ. Functionalization of C60 with diphosphonate groups: A route to bone-vectored fullerenes. J. Chem. Soc. Perkin Trans.2(6),1173–1176 (2002).CrossrefGoogle Scholar
    • 80  Yudoh K, Shishido K, Murayama H et al. Water-soluble C60 fullerene prevents degeneration of articular cartilage in osteoarthritis via down-regulation of chondrocyte catabolic activity and inhibition of cartilage degeneration during disease development. Arthritis Rheum.56(10),3307–3318 (2007).Crossref, Medline, CASGoogle Scholar
    • 81  Yudoh K, Karasawa R, Masuko K, Kato T. Water-soluble fullerene (C60) inhibits the development of arthritis in the rat model of arthritis. Int. J. Nanomed.4,217–225 (2009).Crossref, Medline, CASGoogle Scholar
    • 82  Yudoh K, Karasawa R, Masuko K, Kato T. Water-soluble fullerene (C60) inhibits the osteoclast differentiation and bone destruction in arthritis. Int. J. Nanomed.4,233–239 (2009).Crossref, Medline, CASGoogle Scholar
    • 83  Sayes CM, Fortner JD, Guo W et al. The differential cytotoxicity of water-soluble fullerenes. Nano. Lett.4(10),1881–1887 (2004).Crossref, CASGoogle Scholar
    • 84  Jia G, Wang HF, Yan L et al. Cytotoxicity of carbon nanomaterials: Single-wall nanotube, multi-wall nanotube, and fullerene. Environ. Sci. Technol.39(5),1378–1383 (2005).Crossref, Medline, CASGoogle Scholar
    • 85  Sayes CM, Gobin AM, Ausman KD, Mendez J, West JL, Colvin VL. Nano-C-60 cytotoxicity is due to lipid peroxidation. Biomaterials26(36),7587–7595 (2005).Crossref, Medline, CASGoogle Scholar
    • 86  Nayak TR, Andersen H, Makam VS et al. Graphene for controlled and accelerated osteogenic differentiation of human mesenchymal stem cells. Acs. Nano.5(6),4670–4678 (2011).▪▪ One of the latest studies on biological applications of graphene.Crossref, Medline, CASGoogle Scholar
    • 87  Fan H, Wang L, Zhao K et al. Fabrication, mechanical properties, and biocompatibility of graphene-reinforced chitosan composites. Biomacromolecules11(9),2345–2351 (2010).Crossref, Medline, CASGoogle Scholar
    • 88  Czarnecki JS, Lafdi K, Tsonis PA. A novel approach to control growth, orientation, and shape of human osteoblasts. Tissue Eng. Pt A.14(2),255–265 (2008).Crossref, Medline, CASGoogle Scholar
    • 89  Yahya N, Koziol K, Boskovic BO. Synthesis of carbon nanostructures by CVD method. In: Carbon and Oxide Nanostructures (Eds). Springer, Berlin, Heidelberg, 23–49 (2011).▪ A summary on structure and synthesis methods of carbon nanotubes and other forms of carbon nanostructure.Google Scholar
    • 90  Cassell AM, Raymakers JA, Kong J, Dai HJ. Large scale cvd synthesis of single-walled carbon nanotubes. J. Phys. Chem. B.103(31),6484–6492 (1999).Crossref, CASGoogle Scholar
    • 91  Ren ZF, Huang ZP, Xu JW et al. Synthesis of large arrays of well-aligned carbon nanotubes on glass. Science282(5391),1105–1107 (1998).Crossref, Medline, CASGoogle Scholar
    • 92  Che G, Lakshmi BB, Martin CR, Fisher ER, Ruoff RS. Chemical vapor deposition based synthesis of carbon nanotubes and nanofibers using a template method. Chem. Mater.10(1),260–267 (1998).Crossref, CASGoogle Scholar
    • 93  Dai HJ. Carbon nanotubes: synthesis, integration, and properties. Accounts Chem. Res.35(12),1035–1044 (2002).Crossref, Medline, CASGoogle Scholar
    • 94  Baddour C, Briens C. Carbon nanotube synthesis: a review. Int. J. Chem. React. Eng.3,R3 (2005).Google Scholar
    • 95  Mamalis AG, Voglander Log, Markopoulos A. Nanotechnology and nanostructured materials: Trends in carbon nanotubes. Precis. Eng.28(1),16–30 (2004).CrossrefGoogle Scholar
    • 96  Merchan-Merchan W, Saveliev AV, Kennedy L, Jimenez WC. Combustion synthesis of carbon nanotubes and related nanostructures. Prog. Energ. Combust.36(6),696–727 (2010).Crossref, CASGoogle Scholar
    • 97  Iijima S, Ichihashi T. Single-shell carbon nanotubes of 1-nm diameter. Nature363(6430),603–605 (1993).Crossref, CASGoogle Scholar
    • 98  Bethune DS, Klang CH, De Vries MS et al. Cobalt-catalysed growth of carbon nanotubes with single-atomic-layer walls. Nature363(6430),605–607 (1993).Crossref, CASGoogle Scholar
    • 99  Ebbesen TW, Ajayan PM. Large-scale synthesis of carbon nanotubes. Nature358(6383),220–222 (1992).Crossref, CASGoogle Scholar
    • 100  Colbert DT, Zhang J, Mcclure SM et al. Growth and sintering of fullerene nanotubes. Science266(5188),1218–1222 (1994).Crossref, Medline, CASGoogle Scholar
    • 101  Devries RC. Synthesis of diamond under metastable conditions. Ann. Rev. Mater. Sci.17,161–187 (1987).Crossref, CASGoogle Scholar
    • 102  Kimock FM, Knapp BJ. Commercial applications of ion-beam deposited diamond-like carbon (DLC) coatings. Surf. Coat. Tech.56(3),273–279 (1993).Crossref, CASGoogle Scholar
    • 103  Lau WM, Bello I, Feng X et al. Direct ion-beam deposition of carbon-films on silicon in the ion energy-range of 15–500 ev. J. Appl. Phys.70(10),5623–5627 (1991).Crossref, CASGoogle Scholar
    • 104  Schneider D, Meyer CF, Mai H et al. Non-destructive characterization of mechanical and structural properties of amorphous diamond-like carbon films. Diam. Relat. Mater.7(7),973–980 (1998).Crossref, CASGoogle Scholar
    • 105  Druz B, Ostan E, Distefano S et al. Diamond-like carbon films deposited using a broad, uniform ion beam from an rf inductively coupled CH4-plasma source. Diam. Relat. Mater.7(7),965–972 (1998).Crossref, CASGoogle Scholar
    • 106  Lu TR, Kuo CT, Yang JR, Chen LC, Chen Kh, Chen TM. High purity nano-crystalline carbon nitride films prepared at ambient temperature by ion beam sputtering. Surf. Coat. Tech.115(2–3),116–122 (1999).Crossref, CASGoogle Scholar
    • 107  Paredez P, Marchi MC, Da Costa Mehm et al. Carbon nano-structures containing nitrogen and hydrogen prepared by ion beam assisted deposition. J. Non-Cryst. Solids352(9–20),1303–1306 (2006).Crossref, CASGoogle Scholar
    • 108  Li QT, Ni ZC, Gong JL, Zhu DZ, Zhu ZY. Nano-graphite deposits on multi-walled carbon nanotubes induced by low energy ion beam irradiation in a methane and hydrogen mixture. New Carbon Mater.23(3),235–240 (2008).Crossref, CASGoogle Scholar
    • 109  Yamamoto K, Koga Y, Fujiwara S, Kubota M. New method of carbon nanotube growth by ion beam irradiation. Appl. Phys. Lett.69(27),4174–4175 (1996).Crossref, CASGoogle Scholar
    • 110  Kroto HW, Heath JR, O’brien SC, Curl RF, Smalley RE. C60: Buckminsterfullerene. Nature318(6042),162–163 (1985).Crossref, CASGoogle Scholar
    • 111  Guo T, Diener MD, Chai Y et al. Uranium stabilization of C28 – a tetravalent fullerene. Science257(5077),1661–1664 (1992).Crossref, Medline, CASGoogle Scholar
    • 112  Thess A, Lee R, Nikolaev P et al. Crystalline ropes of metallic carbon nanotubes. Science273(5274),483–487 (1996).Crossref, Medline, CASGoogle Scholar
    • 113  Bandow S, Rao AM, Williams KA, Thess A, Smalley RE, Eklund PC. Purification of single-wall carbon nanotubes by microfiltration. J. Phys. Chem. B.101(44),8839–8842 (1997).Crossref, CASGoogle Scholar
    • 114  Bandow S, Asaka S, Saito Y et al. Effect of the growth temperature on the diameter distribution and chirality of single-wall carbon nanotubes. Phys. Rev. Lett.80(17),3779–3782 (1998).Crossref, CASGoogle Scholar
    • 115  Kataura H, Kumazawa Y, Maniwa Y et al. Diameter control of single-walled carbon nanotubes. Carbon38(11–12),1691–1697 (2000).Crossref, CASGoogle Scholar
    • 116  Kataura H, Kimura A, Ohtsuka Y et al. Formation of thin single-wall carbon nanotubes by laser vaporization of rh/pd-graphite composite rod. Jpn. J. Appl. Phys. 237(5B),L616–L618 (1998).Crossref, CASGoogle Scholar
    • 117  Nikolaev P. Gas-phase production of single-walled carbon nanotubes from carbon monoxide: A review of the hipco process. J. Nanosci. Nanotechnol.4(4),307–316 (2004).Crossref, Medline, CASGoogle Scholar
    • 118  Bronikowski MJ, Willis PA, Colbert DT, Smith KA, Smalley RE. Gas-phase production of carbon single-walled nanotubes from carbon monoxide via the hipco process: a parametric study. J. Vac. Sci. Technol. A.19(4),1800–1805 (2001).Crossref, CASGoogle Scholar
    • 119  Heiman A, Gouzman I, Christiansen SH et al. Evolution and properties of nanodiamond films deposited by direct current glow discharge. J. Appl. Phys.89(5),2622–2630 (2001).Crossref, CASGoogle Scholar
    • 120  Kundu SN, Basu M, Maity AB, Chaudhuri S, Pal AK. Nanocrystalline diamond films deposited by high pressure sputtering of vitreous carbon. Mater. Lett.31(3–6),303–309 (1997).Crossref, CASGoogle Scholar
    • 121  Kokai F, Nozaki I, Okada T, Koshio A, Kuzumaki T. Efficient growth of multi-walled carbon nanotubes by continuous-wave laser vaporization of graphite containing b4c. Carbon49(4),1173–1181 (2011).Crossref, CASGoogle Scholar
    • 122  Hirata E, Uo M, Nodasaka Y et al. 3D collagen scaffolds coated with multiwalled carbon nanotubes: Initial cell attachment to internal surface. J. Biomed. Mater. Res. B.93B(2),544–550 (2010).Crossref, CASGoogle Scholar
    • 123  Singh MK, Gracio J, Leduc P et al. Integrated biomimetic carbon nanotube composites for in vivo systems. Nanoscale2(12),2855–2863 (2010).Crossref, Medline, CASGoogle Scholar
    • 124  Abarrategi A, Gutierrez MC, Moreno-Vicente C et al. Multiwall carbon nanotube scaffolds for tissue engineering purposes. Biomaterials29(1),94–102 (2008).Crossref, Medline, CASGoogle Scholar
    • 125  Ohkohchi M. Synthesis of single-walled carbon nanotubes by ac arc discharge. Jap. J. App.Phys.38(7A),4158–4159 (1999).Crossref, CASGoogle Scholar
    • 126  Schauerman CM, Alvarenga J, Landi BJ, Cress CD, Raffaelle RP. Impact of nanometal catalysts on the laser vaporization synthesis of single wall carbon nanotubes. Carbon47(10),2431–2435 (2009).Crossref, CASGoogle Scholar
    • 127  Bhattacharya M, Wutticharoenmongkol-Thitiwongsawet P, Hamamoto DT et al. Bone formation on carbon nanotube composite. J. Biomed. Mater. Res. A.96A(1),75–82 (2011).Crossref, CASGoogle Scholar
    • 128  Mendes RM, Silva Gab, Caliari MV, Silva EE, Ladeira LO, Ferreira AJ. Effects of single wall carbon nanotubes and its functionalization with sodium hyaluronate on bone repair. Life Sci.87(7–8),215–222 (2010).Crossref, Medline, CASGoogle Scholar
    • 129  Tutak W, Park KH, Vasilov A et al. Toxicity induced enhanced extracellular matrix production in osteoblastic cells cultured on single-walled carbon nanotube networks. Nanotechnology20(25), – (2009).Crossref, MedlineGoogle Scholar
    • 130  Shi XF, Sitharaman B, Pham QP et al. Fabrication of porous ultra-short single-walled carbon nanotube nanocomposite scaffolds for bone tissue engineering. Biomaterials28(28),4078–4090 (2007).Crossref, Medline, CASGoogle Scholar
    • 131  Pacheco-Sotel JO, Pacheco MP, Barrientos RV et al. Carbon nanofibers synthesized by glow-arc high-frequency discharge. Ieee. T. Plasma. Sci.35(2),460–466 (2007).CrossrefGoogle Scholar
    • 132  Khang D, Sato M, Price RL, Ribbe AE, Webster TJ. Selective adhesion and mineral deposition by osteoblasts on carbon nanofiber patterns. Int. J. Nanomedicine1(1),65–72 (2006).Crossref, Medline, CASGoogle Scholar
    • 133  Price RL, Waid MC, Haberstroh KM, Webster TJ. Selective bone cell adhesion on formulations containing carbon nanofibers. Biomaterials24(11),1877–1887 (2003).Crossref, Medline, CASGoogle Scholar
    • 134  Pareta R, Yang L, Kothari A et al. Tailoring nanocrystalline diamond coated on titanium for osteoblast adhesion. J. Biomed. Mater. Res. A.95A(1),129–136 (2010).Crossref, CASGoogle Scholar
    • 135  Kleckley S, Wang H, Oladeji I et al. Fullerenes and polymers produced by the chemical vapor deposition method. Synth. Characterizat. Adv. Mater.681,51–60 (1998).Crossref, CASGoogle Scholar
    • 136  Alekseyev NI, Dyuzhev GA. Fullerene formation in an arc discharge. Carbon41(7),1343–1348 (2003).Crossref, CASGoogle Scholar
    • 137  Matsuo H, Takatsu H. Fullerene synthesis by pulse arc discharge and formation process. Mol. Cryst. Liq. Cryst.386,121–127 (2002).Crossref, CASGoogle Scholar
    • 138  Afanasev D, Blinov I, Bogdanov A, Dyuzhev G, Karataev V, Kruglikov A. Formation of fullerene in arc-discharge. Zh. Tekh. Fiz+64(10),76–90 (1994).CASGoogle Scholar
    • 201  Sun Z, Barron A. TEM imaging of carbon nanomaterials http://cnx.org/content/m22963/1.5 (Accessed 2010)Google Scholar
    • 202  Endo M. Application to the composite material of carbon fiber http://endomoribu.shinshu-u.ac.jp/research/cnt/composit.html (Accessed 2011)Google Scholar