Surface modification of electrospun fibres for biomedical applications: A focus on radical polymerization methods

Biomaterials

Volumn 106, Issue , 2016, Pages 24-45

  Duque Sánchez, Lina ^a,b   Brack, Narelle ^a   Postma, Almar ^b   Pigram, Paul J ^a   Meagher, Laurence ^c  

^a LA TROBE UNIVERSITY   (Australia)

^b CSIRO   (Australia)

^c MONASH UNIVERSITY   (Australia)

Author keywords

ATRP; Electrospinning; RAFT; Reversible deactivation radical polymerization (RDRP); Surface initiated polymerization; Surface modification

Indexed keywords

BIOCOMPATIBILITY; BIODEGRADABLE POLYMERS; CHEMICAL MODIFICATION; ELECTROSPINNING; FIBERS; FREE RADICAL POLYMERIZATION; FREE RADICAL REACTIONS; FUNCTIONAL POLYMERS; MEDICAL APPLICATIONS; POLYMERIZATION; PROTEINS; QUALITY CONTROL; SPINNING (FIBERS); SURFACE CHEMISTRY; SURFACE TREATMENT;

CONTROLLED RADICAL POLYMERIZATION; EXTRACELLULAR MATRIX PROTEIN; NON-SPECIFIC PROTEIN ADSORPTION; RAFT; REVERSIBLE ADDITION FRAGMENTATION CHAIN TRANSFER; REVERSIBLEDEACTIVATION RADICAL POLYMERIZATION (RDRP); SURFACE INITIATED POLYMERIZATION; TOPOGRAPHICAL PROPERTIES;

ATOM TRANSFER RADICAL POLYMERIZATION;

BIOMATERIAL; POLYMER; NANOFIBER;

ATOM TRANSFER RADICAL POLYMERIZATION; CHEMICAL MODIFICATION; CHEMICAL STRUCTURE; DRUG DELIVERY SYSTEM; ELECTROSPINNING; EMULSION; GRANULATION TISSUE; HUMAN; MELTING POINT; NANOFABRICATION; POLYMERIZATION; PRIORITY JOURNAL; REVIEW; SURFACE PROPERTY; TISSUE ENGINEERING; TISSUE INTERACTION; CHEMISTRY; ELECTROPLATING INDUSTRY; MATERIALS TESTING; PROCEDURES; ROTATION; SYNTHESIS; ULTRASTRUCTURE;

BIOCOMPATIBLE MATERIALS; ELECTROPLATING; MATERIALS TESTING; NANOFIBERS; POLYMERS; ROTATION; SURFACE PROPERTIES;

EID: 84982145205     PISSN: 01429612     EISSN: 18785905     Source Type: Journal    
DOI: 10.1016/j.biomaterials.2016.08.011     Document Type: Review

References (205)

1. [1] Reneker, D.H., Chun, I., Nanometre diameter fibres of polymer, produced by electrospinning. Nanotechnology 7 (1996), 216–223.
2. [2] Subbiah, T., Bhat, G.S., Tock, R.W., Pararneswaran, S., Ramkumar, S.S., Electrospinning of nanofibers. J. Appl. Polym. Sci. 96 (2005), 557–569.
3. [3] Agarwal, S., Wendorff, J.H., Greiner, A., Use of electrospinning technique for biomedical applications. Polymer 49 (2008), 5603–5621.
4. [4] Braghirolli, D.I., Steffens, D., Pranke, P., Electrospinning for regenerative medicine: a review of the main topics. Drug Discov. Today 19 (2014), 743–753.
5. [5] Bhardwaj, N., Kundu, S.C., Electrospinning: a fascinating fiber fabrication technique. Biotechnol. Adv. 28 (2010), 325–347.
6. [6] Rogina, A., Electrospinning process: versatile preparation method for biodegradable and natural polymers and biocomposite systems applied in tissue engineering and drug delivery. Appl. Surf. Sci. 296 (2014), 221–230.
7. [7] Persano, L., Camposeo, A., Tekmen, C., Pisignano, D., Industrial upscaling of electrospinning and applications of polymer nanofibers: a review. Macromol. Mater. Eng. 298 (2013), 504–520.
8. [8] Pelipenko, J., Kocbek, P., Govedarica, B., Rošic, R., Baumgartner, S., Kristl, J., The topography of electrospun nanofibers and its impact on the growth and mobility of keratinocytes. Eur. J. Pharm. Biopharm. 84 (2013), 401–411.
9. [9] Li, M., Mondrinos, M.J., Gandhi, M.R., Ko, F.K., Weiss, A.S., Lelkes, P.I., Electrospun protein fibers as matrices for tissue engineering. Biomaterials 26 (2005), 5999–6008.
10. [10] Stevens, M.M., George, J.H., Exploring and engineering the cell surface interface. Science 310 (2005), 1135–1138.
11. [11] Delon, I., Brown, N.H., Integrins and the actin cytoskeleton. Curr. Opin. Cell Biol. 19 (2007), 43–50.
12. [12] Giancotti, F.G., Ruoslahti, E., Integrin signaling. Science 285 (1999), 1028–1032.
13. [13] Hynes, R.O., Extracellular matrix: not just pretty fibrils. Science 326 (2009), 1216–1219 New York, N.Y.
14. [14] Cho, W.K., Kong, B., Choi, I.S., Highly efficient non-biofouling coating of zwitterionic polymers: poly((3-(methacryloylamino)propyl)-dimethyl(3-sulfopropyl)ammonium hydroxide). Langmuir ACS J. Surfaces Colloids 23 (2007), 5678–5682.
15. [15] He, X., Xiao, Q., Lu, C., Wang, Y., Zhang, X., Zhao, J., Zhang, W., Zhang, X., Deng, Y., Uniaxially aligned electrospun all-cellulose nanocomposite nanofibers reinforced with cellulose nanocrystals: scaffold for tissue engineering. Biomacromolecules 15 (2014), 618–627.
16. [16] Zhu, W., Masood, F., O'Brien, J., Zhang, L.G., Highly aligned nanocomposite scaffolds by electrospinning and electrospraying for neural tissue regeneration. Nanomedicine Nanotechnology Biol. Med. 11 (2015), 693–704.
17. [17] Jing, X., Mi, H.-Y., Peng, J., Peng, X.-F., Turng, L.-S., Electrospun aligned poly(propylene carbonate) microfibers with chitosan nanofibers as tissue engineering scaffolds. Carbohydr. Polym. 117 (2015), 941–949.
18. [18] Mi, H.-Y., Salick, M.R., Jing, X., Crone, W.C., Peng, X.-F., Turng, L.-S., Electrospinning of unidirectionally and orthogonally aligned thermoplastic polyurethane nanofibers: fiber orientation and cell migration. J. Biomed. Mater. Res. Part A 103 (2015), 593–603.
19. [19] Kolbuk, D., Sajkiewicz, P., Maniura-Weber, K., Fortunato, G., Structure and morphology of electrospun polycaprolactone/gelatine nanofibres. Eur. Polym. J. 49 (2013), 2052–2061.
20. [20] Zhang, K., Qian, Y., Wang, H., Fan, L., Huang, C., Mo, X., Electrospun silk fibroin-hydroxybutyl chitosan nanofibrous scaffolds to biomimic extracellular matrix. J. Biomater. Sci. Polym. Ed. 22 (2011), 1069–1082.
21. [21] Sajeev, U.S., Anand, K.A., Menon, D., Nair, S., Control of nanostructures in PVA, PVA/chitosan blends and PCL through electrospinning. Bull. Mater. Sci. 31 (2008), 343–351.
22. [22] Taylor, G., Electrically driven jets. Proc. Natl. Acad. Sci. Lond. A 313 (1969), 453–475.
23. [23] Yarin, A.L., Koombhongse, S., Reneker, D.H., Taylor cone and jetting from liquid droplets in electrospinning of nanofibers. J. Appl. Phys. 90 (2001), 4836–4846.
24. [24] Doshi, J., Reneker, D.H., Electrospinning process and applications of electrospun fibers. J. Electrost. 35 (1995), 151–160.
25. [25] Ramakrishna, S., Fujihara, K., Teo, W.E., Lim, C.T., Ma, Z., Electrospinning process. An Introduction to Electrospinning and Nanofibres, 2005, World Scientific, New Jersey, 90–154.
26. [26] Bognitzki, M., Czado, W., Frese, T., Schaper, A., Hellwig, M., Steinhart, M., Greiner, A., Wendorff, J.H., Nanostructured fibers via electrospinning. Adv. Mater. 13 (2001), 70–72.
27. [27] Zhang, D., Chang, J., Patterning of electrospun fibers using electroconductive templates. Adv. Mater. 19 (2007), 3664–3667.
28. [28] Zucchelli, A., Fabiani, D., Gualandi, C., Focarete, M.L., An innovative and versatile approach to design highly porous, patterned, nanofibrous polymeric materials. J. Mater. Sci. 44 (2009), 4969–4975.
29. [29] Klinkhammer, K., Seiler, N., Grafahrend, D., Gerardo-Nava, J., Mey, J., Brook, G.A., Möller, M., Dalton, P.D., Klee, D., Deposition of electrospun fibers on reactive substrates for in vitro investigations. Tissue Eng. Part C. Methods 15 (2008), 77–85.
30. [30] Sankaran, K.K., Vasanthan, K.S., Krishnan, U.M., Sethuraman, S., Development and evaluation of axially aligned nanofibres for blood vessel tissue engineering. J. Tissue Eng. Regen. Med. 8 (2014), 640–651.
31. [31] Muerza-Cascante, M.L., Haylock, D., Hutmacher, D.W., Dalton, P.D., Melt electrospinning and its technologization in tissue engineering. Tissue Eng. Part B Rev. 21 (2014), 187–202.
32. [32] Yoon, Y.I., Park, K.E., Lee, S.J., Park, W.H., Fabrication of microfibrous and nano-/microfibrous scaffolds: melt and hybrid electrospinning and surface modification of poly(l-lactic acid) with plasticizer. BioMed Res. Int., 2013, 2013, 10.
33. [33] Dalton, P.D., Grafahrend, D., Klinkhammer, K., Klee, D., Möller, M., Electrospinning of polymer melts: phenomenological observations. Polymer 48 (2007), 6823–6833.
34. [34] Hutmacher, D.W., Dalton, P.D., Melt electrospinning. Chem. – An Asian J. 6 (2011), 44–56.
35. [35] Brown, T.D., Dalton, P.D., Hutmacher, D.W., Melt electrospinning today: an opportune time for an emerging polymer process. Prog. Polym. Sci. 56 (2016), 116–166.
36. [36] Kim, S.J., Jeong, L., Lee, S.J., Cho, D., Park, W.H., Fabrication and surface modification of melt-electrospun poly(D,L-lactic-co-glycolic acid) microfibers. Fibers Polym. 14 (2013), 1491–1496.
37. [37] Hacker, C., Karahaliloglu, Z., Seide, G., Denkbas, E.B., Gries, T., Functionally modified, melt-electrospun thermoplastic polyurethane mats for wound-dressing applications. J. Appl. Polym. Sci., 131, 2014, 40132.
38. [38] Kai, D., Liow, S.S., Loh, X.J., Biodegradable polymers for electrospinning: towards biomedical applications. Mater. Sci. Eng. C 45 (2014), 659–670.
39. [39] Liao, I.C., Chew, S.Y., Leong, K.W., Aligned core-shell nanofibers delivering bioactive proteins. Nanomedicine 1 (2006), 465–471.
40. [40] Yu, D.-G., Chian, W., Wang, X., Li, X.-Y., Li, Y., Liao, Y.-Z., Linear drug release membrane prepared by a modified coaxial electrospinning process. J. Membr. Sci. 428 (2013), 150–156.
41. [41] Merkle, V.M., Zeng, L., Slepian, M.J., Wu, X.Y., Core-shell nanofibers: integrating the bioactivity of gelatin and the mechanical property of polyvinyl alcohol. Biopolymers 101 (2014), 336–346.
42. [42] Vaidya, P., Grove, T., Edgar, K.J., Goldstein, A.S., Surface grafting of chitosan shell, polycaprolactone core fiber meshes to confer bioactivity. J. Bioact. Compatible Polym. 30 (2015), 258–274.
43. [43] Yang, Y., Xia, T., Zhi, W., Wei, L., Weng, J., Zhang, C., Li, X., Promotion of skin regeneration in diabetic rats by electrospun core-sheath fibers loaded with basic fibroblast growth factor. Biomaterials 32 (2011), 4243–4254.
44. [44] Zamani, M., Prabhakaran, M.P., Ramakrishna, S., Advances in drug delivery via electrospun and electrosprayed nanomaterials. Int. J. Nanomedicine 8 (2013), 2997–3017.
45. [45] Zeng, J., Yang, L., Liang, Q., Zhang, X., Guan, H., Xu, X., Chen, X., Jing, X., Influence of the drug compatibility with polymer solution on the release kinetics of electrospun fiber formulation. J. Control. Release 105 (2005), 43–51.
46. [46] Risdian, C., Nasir, M., Rahma, A., Rachmawati, H., The influence of formula and process on physical properties and the release profile of PVA/BSA nanofibers formed by electrospinning technique. J. Nano Res. 31 (2015), 103–116.
47. [47] Kim, H.S., Yoo, H.S., MMPs-responsive release of DNA from electrospun nanofibrous matrix for local gene therapy: in vitro and in vivo evaluation. J. Control. Release 145 (2010), 264–271.
48. [48] Im, J.S., Yun, J., Lim, Y.-M., Kim, H.-I., Lee, Y.-S., Fluorination of electrospun hydrogel fibers for a controlled release drug delivery system. Acta biomater. 6 (2010), 102–109.
49. [49] Yu, H., Jia, Y., Yao, C., Lu, Y., PCL/PEG core/sheath fibers with controlled drug release rate fabricated on the basis of a novel combined technique. Int. J. Pharm. 469 (2014), 17–22.
50. [50] Jiang, J., Xie, J., Ma, B., Bartlett, D.E., Xu, A., Wang, C.H., Mussel-inspired protein-mediated surface functionalization of electrospun nanofibers for pH-responsive drug delivery. Acta Biomater. 10 (2014), 1324–1332.
51. [51] Hu, J., Wei, J., Liu, W., Chen, Y., Preparation and characterization of electrospun PLGA/gelatin nanofibers as a drug delivery system by emulsion electrospinning. J. Biomater. Sci. Polym. Ed. 24 (2013), 972–985.
52. [52] Li, X., Su, Y., Liu, S., Tan, L., Mo, X., Ramakrishna, S., Encapsulation of proteins in poly(l-lactide-co-caprolactone) fibers by emulsion electrospinning. Colloids Surfaces B Biointerfaces 75 (2010), 418–424.
53. [53] Briggs, T., Arinzeh, T.L., Examining the formulation of emulsion electrospinning for improving the release of bioactive proteins from electrospun fibers. J. Biomed. Mater. Res. Part A 102 (2014), 674–684.
54. [54] Spano, F., Quarta, A., Martelli, C., Ottobrini, L., Rossi, R.M., Gigli, G., Blasi, L., Fibrous scaffolds fabricated by emulsion electrospinning: from hosting capacity to in vivo biocompatibility. Nanoscale 8 (2016), 9293–9303.
55. [55] Anderson, J.M., Biological responses to materials. Annu. Rev. Mater Res. 31 (2001), 81–110.
56. [56] Swartzlander, M.D., Barnes, C.A., Blakney, A.K., Kaar, J.L., Kyriakides, T.R., Bryant, S.J., Linking the foreign body response and protein adsorption to PEG-based hydrogels using proteomics. Biomaterials 41 (2015), 26–36.
57. [57] Anderson, J.M., Rodriguez, A., Chang, D.T., Foreign body reaction to biomaterials. Semin. Immunol. 20 (2008), 86–100.
58. [58] Thevenot, P., Hu, W., Tang, L., Surface chemistry influence implant biocompatibility. Curr. Top. Med. Chem. 8 (2008), 270–280.
59. [59] Hu, W.-J., Eaton, J.W., Ugarova, T.P., Tang, L., Molecular basis of biomaterial-mediated foreign body reactions. Blood 98 (2001), 1231–1238.
60. [60] Tang, L., Ugarova, T.P., Plow, E.F., Eaton, J.W., Molecular determinants of acute inflammatory responses to biomaterials. J. Clin. Investig. 97 (1996), 1329–1334.
61. [61] Junge, K., Binnebösel, M., von Trotha, K., Rosch, R., Klinge, U., Neumann, U.P., Lynen Jansen, P., Mesh biocompatibility: effects of cellular inflammation and tissue remodelling. Langenbecks Arch. Surg. 397 (2012), 255–270.
62. [62] Mathieu, H.J., Bioengineered material surfaces for medical applications. Surf. Interface Anal. 32 (2001), 3–9.
63. [63] Ratner, B.D., Chapter II.1.1-introduction: biology and medicine – key concepts in the use of biomaterials in surgery and medical devices. Ratner, B.D., Hoffman, A.S., Frederick, J.S., Lemons, J.E., (eds.) Biomaterials Science, third ed., 2013, Academic Press, 393–394.
64. [64] Hirsh, S.L., McKenzie, D.R., Nosworthy, N.J., Denman, J.A., Sezerman, O.U., Bilek, M.M.M., The Vroman effect: competitive protein exchange with dynamic multilayer protein aggregates. Colloids Surfaces B Biointerfaces 103 (2013), 395–404.
65. [65] Bryers, J.D., Giachelli, C.M., Ratner, B.D., Engineering biomaterials to integrate and heal: the biocompatibility paradigm shifts. Biotechnol. Bioeng. 109 (2012), 1898–1911.
66. [66] Sheikh, Z., Brooks, P.J., Barzilay, O., Fine, N., Glogauer, M., Macrophages, foreign body giant cells and their response to implantable biomaterials. Materials 8 (2015), 5671–5701.
67. [67] Wooley, H.P., Hallab, J.N., Wound healing, chronic inflammation, and immune responses. Jones, C.L., Haggard, O.W., Greenwald, S.A., (eds.) Metal-on-Metal Bearings: A Clinical Practicum, 2014, Springer New York, New York, NY, 109–133.
68. [68] Boccafoschi, F., Mosca, C., Cannas, M., Cardiovascular biomaterials: when the inflammatory response helps to efficiently restore tissue functionality?. J. Tissue Eng. Regen. Med. 8 (2014), 253–267.
69. [69] Morais, J.M., Papadimitrakopoulos, F., Burgess, D.J., Biomaterials/tissue interactions: possible solutions to overcome foreign body response. Aaps J. 12 (2010), 188–196.
70. [70] Schoen, F.J., Chapter II.2.1-introduction: “biological responses to biomaterials”. Ratner, B.D., Hoffman, A.S., Frederick, J.S., Lemons, J.E., (eds.) Biomaterials Science, third ed., 2013, Academic Press, 499–503.
71. [71] Gluck, J.M., Rahgozar, P., Ingle, N.P., Rofail, F., Petrosian, A., Cline, M.G., Jordan, M.C., Roos, K.P., MacLellan, W.R., Shemin, R.J., Heydarkhan-Hagvall, S., Hybrid coaxial electrospun nanofibrous scaffolds with limited immunological response created for tissue engineering. J. Biomed. Mater Res. Part B Appl. Biomater. 99B (2011), 180–190.
72. [72] Shen, H., Hu, X., Yang, F., Bei, J., Wang, S., Combining oxygen plasma treatment with anchorage of cationized gelatin for enhancing cell affinity of poly(lactide-co-glycolide). Biomaterials 28 (2007), 4219–4230.
73. [73] Agarwal, S., Wendorff, J.H., Greiner, A., Progress in the field of electrospinning for tissue engineering applications. Adv. Mater. 21 (2009), 3343–3351.
74. [74] Zhang, Y., Ouyang, H., Lim, C.T., Ramakrishna, S., Huang, Z.-M., Electrospinning of gelatin fibers and gelatin/PCL composite fibrous scaffolds. J. Biomed. Mater Res. Part B Appl. Biomater. 72B (2005), 156–165.
75. [75] Fang, Z., Fu, W., Dong, Z., Zhang, X., Gao, B., Guo, D., He, H., Wang, Y., Preparation and biocompatibility of electrospun poly(l-lactide-co-ɛ-caprolactone)/fibrinogen blended nanofibrous scaffolds. Appl. Surf. Sci. 257 (2011), 4133–4138.
76. [76] Yano, Y.F., Kinetics of protein unfolding at interfaces. J. Phys. Condens Matter 24 (2012), 1–16.
77. [77] Zandstra, J., Hiemstra, C., Petersen, A.H., Zuidema, J., van Beuge, M.M., Rodriguez, S., Lathuile, A.A.R., Veldhuis, G.J., Steendam, R., Bank, R.A., Popa, E.R., Microsphere size influences the foreign body reaction. Eur. Cells Mater. 28 (2014), 335–347.
78. [78] Matlaga, B.F., Yasenchak, L.P., Salthouse, T.N., Tissue-response to implanted polymers-significance of sample shape. J. Biomed. Mater. Res. 10 (1976), 391–397.
79. [79] Ghanaati, S., Barbeck, M., Orth, C., Willershausen, I., Thimm, B.W., Hoffmann, C., Rasic, A., Sader, R.A., Unger, R.E., Peters, F., Kirkpatrick, C.J., Influence of beta-tricalcium phosphate granule size and morphology on tissue reaction in vivo. Acta Biomater. 6 (2010), 4476–4487.
80. [80] Veiseh, O., Doloff, J.C., Ma, M., Vegas, A.J., Tam, H.H., Bader, A.R., Li, J., Langan, E., Wyckoff, J., Loo, W.S., Jhunjhunwala, S., Chiu, A., Siebert, S., Tang, K., Hollister-Lock, J., Aresta-Dasilva, S., Bochenek, M., Mendoza-Elias, J., Wang, Y., Qi, M., Lavin, D.M., Chen, M., Dholakia, N., Thakrar, R., Lacik, I., Weir, G.C., Oberholzer, J., Greiner, D.L., Langer, R., Anderson, D.G., Size- and shape-dependent foreign body immune response to materials implanted in rodents and non-human primates. Nat. Mater. 14 (2015), 643–651.
81. [81] Cao, H., McHugh, K., Chew, S.Y., Anderson, J.M., The topographical effect of electrospun nanofibrous scaffolds on the in vivo and in vitro foreign body reaction. J. Biomed. Mater. Res. Part A 93A (2010), 1151–1159.
82. [82] Saino, E., Focarete, M.L., Gualandi, C., Emanuele, E., Cornaglia, A.I., Imbriani, M., Visai, L., Effect of electrospun fiber diameter and alignment on macrophage activation and secretion of proinflammatory cytokines and chemokines. Biomacromolecules 12 (2011), 1900–1911.
83. [83] Sanders, J.E., Stiles, C.E., Hayes, C.L., Tissue response to single-polymer fibers of varying diameters: evaluation of fibrous encapsulation and macrophage density. J. Biomed. Mater. Res. 52 (2000), 231–237.
84. [84] Cui, W., Li, X., Zhou, S., Weng, J., Degradation patterns and surface wettability of electrospun fibrous mats. Polym. Degrad. Stab. 93 (2008), 731–738.
85. [85] Yang, F., Wolke, J.G.C., Jansen, J.A., Biomimetic calcium phosphate coating on electrospun poly(ɛ-caprolactone) scaffolds for bone tissue engineering. Chem. Eng. J. 137 (2008), 154–161.
86. [86] Shabani, I., Haddadi-Asl, V., Seyedjafari, E., Babaeijandaghi, F., Soleimani, M., Improved infiltration of stem cells on electrospun nanofibers. Biochem. Biophysical Res. Commun. 382 (2009), 129–133.
87. [87] Liu, W., Zhan, J., Su, Y., Wu, T., Wu, C., Ramakrishna, S., Mo, X., Al-Deyab, S.S., El-Newehy, M., Effects of plasma treatment to nanofibers on initial cell adhesion and cell morphology. Colloids Surfaces B Biointerfaces 113 (2014), 101–106.
88. [88] Sankar, D., Shalumon, K.T., Chennazhi, K.P., Menon, D., Jayakumar, R., Surface plasma treatment of poly(caprolactone) micro, nano, and multiscale fibrous scaffolds for enhanced osteoconductivity. Tissue Eng. Part A 20 (2013), 1689–1702.
89. [89] Chen, S.-H., Chen, C.-H., Fong, Y.T., Chen, J.-P., Prevention of peritendinous adhesions with electrospun chitosan-grafted polycaprolactone nanofibrous membranes. Acta Biomater. 10 (2014), 4971–4982.
90. [90] Chandrasekaran, A.R., Venugopal, J., Sundarrajan, S., Ramakrishna, S., Fabrication of a nanofibrous scaffold with improved bioactivity for culture of human dermal fibroblasts for skin regeneration. Biomed. Mater., 6, 2011, 015001.
91. [91] Croll, T.I., O'Connor, A.J., Stevens, G.W., Cooper-White, J.J., Controllable surface modification of poly(lactic-co-glycolic acid) (PLGA) by hydrolysis or aminolysis I: physical, chemical, and theoretical aspects. Biomacromolecules 5 (2004), 463–473.
92. [92] Hagiwara, K., Hasebe, T., Hotta, A., Effects of plasma treatments on the controlled drug release from poly(ethylene-co-vinyl acetate). Surf. Coatings Technol. 216 (2013), 318–323.
93. [93] Jacobs, T., Declercq, H., De Geyter, N., Cornelissen, R., Dubruel, P., Leys, C., Beaurain, A., Payen, E., Morent, R., Plasma surface modification of polylactic acid to promote interaction with fibroblasts. J. Mater. Sci. Mater. Med. 24 (2013), 469–478.
94. [94] Dolci, L.S., Quiroga, S.D., Gherardi, M., Laurita, R., Liguori, A., Sanibondi, P., Fiorani, A., Calzà, L., Colombo, V., Focarete, M.L., Carboxyl surface functionalization of poly(l-lactic acid) electrospun nanofibers through atmospheric non-thermal plasma affects fibroblast morphology. Plasma process. Polym. 11 (2014), 203–213.
95. [95] Park, H., Lee, K., Lee, S., Park, K., Park, W., Plasma-treated poly(lactic-co-glycolic acid) nanofibers for tissue engineering. Macromol. Res. 15 (2007), 238–243.
96. [96] Chandrasekaran, A.R., Venugopal, J., Sundarrajan, S., Ramakrishna, S., Fabrication of a nanofibrous scaffold with improved bioactivity for culture of human dermal fibroblasts for skin regeneration. Biomed. Mater. 6 (2011), 1–10.
97. [97] Prabhakaran, M.P., Venugopal, J., Chan, C.K., Ramakrishna, S., Surface modified electrospun nanofibrous scaffolds for nerve tissue engineering. Nanotechnology 19 (2008), 1–8.
98. [98] Ma, Z.W., He, W., Yong, T., Ramakrishna, S., Grafting of gelatin on electrospun poly(caprolactone) nanofibers to improve endothelial cell spreading and proliferation and to control cell orientation. Tissue Eng. 11 (2005), 1149–1158.
99. [99] He, W., Ma, Z., Yong, T., Teo, W.E., Ramakrishna, S., Fabrication of collagen-coated biodegradable polymer nanofiber mesh and its potential for endothelial cells growth. Biomaterials 26 (2005), 7606–7615.
100. [100] Lee, H., Dellatore, S.M., Miller, W.M., Messersmith, P.B., Mussel-inspired surface chemistry for multifunctional coatings. Science 318 (2007), 426–430.
101. [101] Xi, Z.-Y., Xu, Y.-Y., Zhu, L.-P., Wang, Y., Zhu, B.-K., A facile method of surface modification for hydrophobic polymer membranes based on the adhesive behavior of poly(DOPA) and poly(dopamine). J. Membr. Sci. 327 (2009), 244–253.
102. [102] Nielsen, S.R., Besenbacher, F., Chen, M., Mussel inspired surface functionalization of electrospun nanofibers for bio-applications. Phys. Chem. Chem. Phys. 15 (2013), 17029–17037.
103. [103] Lynge, M.E., van der Westen, R., Postma, A., Stadler, B., Polydopamine-a nature-inspired polymer coating for biomedical science. Nanoscale 3 (2011), 4916–4928.
104. [104] Ye, Q., Zhou, F., Liu, W., Bioinspired catecholic chemistry for surface modification. Chem. Soc. Rev. 40 (2011), 4244–4258.
105. [105] Rim, N.G., Kim, S.J., Shin, Y.M., Jun, I., Lim, D.W., Park, J.H., Shin, H., Mussel-inspired surface modification of poly(l-lactide) electrospun fibers for modulation of osteogenic differentiation of human mesenchymal stem cells. Colloids Surfaces B Biointerfaces 91 (2012), 189–197.
106. [106] Xie, J., Michael, P.L., Zhong, S., Ma, B., MacEwan, M.R., Lim, C.T., Mussel inspired protein-mediated surface modification to electrospun fibers and their potential biomedical applications. J. Biomed. Mater. Res. Part A 100A (2012), 929–938.
107. [107] Cho, H.-j., Madhurakkat Perikamana, S.K., Lee, J.-h., Lee, J., Lee, K.-M., Shin, C.S., Shin, H., Effective immobilization of BMP-2 mediated by polydopamine coating on biodegradable nanofibers for enhanced in vivo bone formation. ACS Appl. Mater. Interfaces 6 (2014), 11225–11235.
108. [108] Wang, X., Yuan, S., Shi, D., Yang, Y., Jiang, T., Yan, S., Shi, H., Luan, S., Yin, J., Integrated antifouling and bactericidal polymer membranes through bioinspired polydopamine/poly(N-vinyl pyrrolidone) coating. Appl. Surf. Sci. 375 (2016), 9–18.
109. [109] Wei, Q., Zhang, F., Li, J., Li, B., Zhao, C., Oxidant-induced dopamine polymerization for multifunctional coatings. Polym. Chem. 1 (2010), 1430–1433.
110. [110] d'Ischia, M., Napolitano, A., Pezzella, A., Meredith, P., Sarna, T., Chemical and structural diversity in eumelanins: unexplored bio-optoelectronic materials. Angew. Chem. Int. Ed. 48 (2009), 3914–3921.
111. [111] Ku, S.H., Park, C.B., Human endothelial cell growth on mussel-inspired nanofiber scaffold for vascular tissue engineering. Biomaterials 31 (2010), 9431–9437.
112. [112] Gao, X., Zhang, X., Song, J., Xu, X., Xu, A., Wang, M., Xie, B., Huang, E., Deng, F., Wei, S., Osteoinductive peptide-functionalized nanofibers with highly ordered structure as biomimetic scaffolds for bone tissue engineering. Int. J. Nanomedicine 10 (2015), 7109–7128.
113. [113] Yoo, H.S., Kim, T.G., Park, T.G., Surface-functionalized electrospun nanofibers for tissue engineering and drug delivery. Adv. Drug Deliv. Rev. 61 (2009), 1033–1042.
114. [114] Quinn, A., Such, G.K., Quinn, J.F., Caruso, F., Polyelectrolyte blend multilayers: a versatile route to engineering interfaces and films. Adv. Funct. Mater. 18 (2008), 17–26.
115. [115] Teo, W.-E., Ramakrishna, S., Electrospun nanofibers as a platform for multifunctional, hierarchically organized nanocomposite. Compos. Sci. Technol. 69 (2009), 1804–1817.
116. [116] Truong, Y.B., Glattauer, V., Briggs, K.L., Zappe, S., Ramshaw, J.A.M., Collagen-based layer-by-layer coating on electrospun polymer scaffolds. Biomaterials 33 (2012), 9198–9204.
117. [117] He, L., Tang, S., Prabhakaran, M.P., Liao, S., Tian, L., Zhang, Y., Xue, W., Ramakrishna, S., Surface modification of PLLA nano-scaffolds with laminin multilayer by LbL assembly for enhancing neurite outgrowth. Macromol. Biosci. 13 (2013), 1601–1609.
118. [118] Müller, K., Quinn, J.F., Johnston, A.P.R., Becker, M., Greiner, A., Caruso, F., Polyelectrolyte functionalization of electrospun fibers. Chem. Mater. 18 (2006), 2397–2403.
119. [119] Huang, C., Soenen, S.J., van Gulck, E., Rejman, J., Vanham, G., Lucas, B., Geers, B., Braeckmans, K., Shahin, V., Spanoghe, P., Demeester, J., De Smedt, S.C., Electrospun polystyrene fibers for HIV entrapment. Polym. Adv. Technol. 25 (2014), 827–834.
120. [120] Yao, R.J., He, J., Meng, G.L., Jiang, B., Wu, F., Electrospun PCL/Gelatin composite fibrous scaffolds: mechanical properties and cellular responses. J. Biomaterials Science-Polymer Ed. 27 (2016), 824–838.
121. [121] Gholipour-Kanani, A., Bahrami, S.H., Joghataie, M.T., Samadikuchaksaraei, A., Ahmadi-Taftie, H., Rabbani, S., Kororian, A., Erfani, E., Tissue engineered poly(caprolactone)-chitosan-poly (vinyl alcohol) nanofibrous scaffolds for burn and cutting wound healing. Iet Nanobiotechnology 8 (2014), 123–131.
122. [122] Gautam, S., Chou, C.F., Dinda, A.K., Potdar, P.D., Mishra, N.C., Fabrication and characterization of PCL/gelatin/chitosan ternary nanofibrous composite scaffold for tissue engineering applications. J. Mater. Sci. 49 (2014), 1076–1089.
123. [123] Ye, J., Shi, X., Chen, X., Xie, J., Wang, C., Yao, K., Gao, C., Gou, Z., Chitosan-modified, collagen-based biomimetic nanofibrous membranes as selective cell adhering wound dressings in the treatment of chemically burned corneas. J. Mater. Chem. B 2 (2014), 4226–4236.
124. [124] Celebi, H., Gurbuz, M., Koparal, S., Dogan, A., Development of antibacterial electrospun chitosan/poly(vinyl alcohol) nanofibers containing silver ion-incorporated HAP nanoparticles. Compos. Interfaces 20 (2013), 799–812.
125. [125] Gentsch, R., Pippig, F., Schmidt, S., Cernoch, P., Polleux, J., Börner, H.G., Single-step electrospinning to bioactive polymer nanofibers. Macromolecules 44 (2011), 453–461.
126. [126] Gasteier, P., Reska, A., Schulte, P., Salber, J., Offenhäusser, A., Moeller, M., Groll, J., Surface grafting of PEO-based star-shaped molecules for bioanalytical and biomedical applications. Macromol. Biosci. 7 (2007), 1010–1023.
127. [127] Klinkhammer, K., Bockelmann, J., Simitzis, C., Brook, G.A., Grafahrend, D., Groll, J., Möller, M., Mey, J., Klee, D., Functionalization of electrospun fibers of poly(ε-caprolactone) with star shaped NCO-poly(ethylene glycol)-stat-poly(propylene glycol) for neuronal cell guidance. J. Mater. Sci. Mater. Med. 21 (2010), 2637–2651.
128. [128] Grafahrend, D., Heffels, K.H., Beer, M.V., Gasteier, P., Moller, M., Boehm, G., Dalton, P.D., Groll, J., Degradable polyester scaffolds with controlled surface chemistry combining minimal protein adsorption with specific bioactivation. Nat. Mater. 10 (2011), 67–73.
129. [129] Zhu, Y., Mao, Z.W., Gao, C.Y., Aminolysis-based surface modification of polyesters for biomedical applications. Rsc Adv. 3 (2013), 2509–2519.
130. [130] Cui, W., Cheng, L., Li, H., Zhou, Y., Zhang, Y., Chang, J., Preparation of hydrophilic poly(l-lactide) electrospun fibrous scaffolds modified with chitosan for enhanced cell biocompatibility. Polymer 53 (2012), 2298–2305.
131. [131] Zhu, Y., Leong, M.F., Ong, W.F., Chan-Park, M.B., Chian, K.S., Esophageal epithelium regeneration on fibronectin grafted poly(l-lactide-co-caprolactone) (PLLC) nanofiber scaffold. Biomaterials 28 (2007), 861–868.
132. [132] Zeronian, S.H., Collins, M.J., Surface modification of polyester by alkaline treatments. Text. Prog. 20 (1989), 1–26.
133. [133] Sadeghi, A.R., Nokhasteh, S., Molavi, A.M., Khorsand-Ghayeni, M., Naderi-Meshkin, H., Mahdizadeh, A., Surface modification of electrospun PLGA scaffold with collagen for bioengineered skin substitutes. Mater. Sci. Eng. C 66 (2016), 130–137.
134. [134] Park, J.S., Kim, J.-M., Lee, S.J., Lee, S.G., Jeong, Y.-K., Kim, S.E., Lee, S.C., Surface hydrolysis of fibrous poly(ε-caprolactone) scaffolds for enhanced osteoblast adhesion and proliferation. Macromol. Res. 15 (2007), 424–429.
135. [135] Van Hong Thien, D., Ho, M., Hsiao, S., Li, C., Wet chemical process to enhance osteoconductivity of electrospun chitosan nanofibers. J. Mater. Sci. 50 (2015), 1575–1585.
136. [136] Bhattacharya, A., Misra, B.N., Grafting: a versatile means to modify polymers: techniques, factors and applications. Prog. Polym. Sci. 29 (2004), 767–814.
137. [137] Edmondson, S., Osborne, V.L., Huck, W.T., Polymer brushes via surface-initiated polymerizations. Chem. Soc. Rev. 33 (2004), 14–22.
138. [138] Zhao, B., Brittain, W.J., Polymer brushes: surface-immobilized macromolecules. Prog. Polym. Sci. 25 (2000), 677–710.
139. [139] Nguyen, S., Graft copolymers containing poly(3-hydroxyalkanoates) — A review on their synthesis, properties, and applications. Can. J. Chem. 86 (2008), 570–578.
140. [140] Barbey, R., Lavanant, L., Paripovic, D., Schüwer, N., Sugnaux, C., Tugulu, S., Klok, H.-A., Polymer brushes via surface-initiated controlled radical polymerization: synthesis, characterization, properties, and applications. Chem. Rev. 109 (2009), 5437–5527.
141. [141] Kato, K., Uchida, E., Kang, E.-T., Uyama, Y., Ikada, Y., Polymer surface with graft chains. Prog. Polym. Sci. 28 (2003), 209–259.
142. [142] Krishnamoorthy, M., Hakobyan, S., Ramstedt, M., Gautrot, J.E., Surface-initiated polymer brushes in the biomedical field: applications in membrane science, biosensing, cell culture, regenerative medicine and antibacterial coatings. Chem. Rev. 114 (2014), 10976–11026.
143. [143] Henze, M., Mädge, D., Prucker, O., Rühe, J., “Grafting through”: mechanistic aspects of radical polymerization reactions with surface-attached monomers. Macromolecules 47 (2014), 2929–2937.
144. [144] Sejoubsari, R.M., Martinez, A.P., Kutes, Y., Wang, Z., Dobrynin, A.V., Adamson, D.H., “Grafting-Through”: growing polymer brushes by supplying monomers through the surface. Macromolecules 49 (2016), 2477–2483.
145. [145] Milner, S., Polymer brushes. Science 251 (1991), 905–914.
146. [146] Teraoka, I., Models of Polymer Chains, Polymer Solutions. 2002, John Wiley & Sons, Inc, 1–67.
147. [147] Minko, S., Responsive polymer brushes. J. Macromol. Sci. Part C 46 (2006), 397–420.
148. [148] Brittain, W.J., Minko, S., A structural definition of polymer brushes. J. Polym. Sci. Part A Polym. Chem. 45 (2007), 3505–3512.
149. [149] Hui, C.M., Pietrasik, J., Schmitt, M., Mahoney, C., Choi, J., Bockstaller, M.R., Matyjaszewski, K., Surface-initiated polymerization as an enabling tool for multifunctional (Nano-)Engineered hybrid materials. Chem. Mater. 26 (2014), 745–762.
150. [150] Matyjaszewski, K., Xia, J., Atom transfer radical polymerization. Chem. Rev. 101 (2001), 2921–2990.
151. [151] Ranjan, R., Brittain, W.J., Combination of living radical polymerization and click chemistry for surface modification. Macromolecules 40 (2007), 6217–6223.
152. [152] Coessens, V.M.C., Matyjaszewski, K., Fundamentals of atom transfer radical polymerization. J. Chem. Educ. 87 (2010), 916–919.
153. [153] Rånby, B., Yang, W.T., Tretinnikov, O., Surface photografting of polymer fibers, films and sheets. Nucl. Instrum. Methods Phys. Res. Sect. B Beam Interact. Mater. Atoms 151 (1999), 301–305.
154. [154] Ma, Y., Liu, L., Yang, W., Photo-induced living/controlled surface radical grafting polymerization and its application in fabricating 3-D micro-architectures on the surface of flat/particulate organic substrates. Polymer 52 (2011), 4159–4173.
155. [155] Mayuri, P.V., Bhatt, A., Joseph, R., Ramesh, P., Effect of photografting 2-hydroxyethyl acrylate on the hemocompatibility of electrospun poly(ethylene-co-vinyl alcohol) fibroporous mats. Mater. Sci. Eng. C 60 (2016), 19–29.
156. [156] Versace, D.L., Ramier, J., Grande, D., Andaloussi, S.A., Dubot, P., Hobeika, N., Malval, J.P., Lalevee, J., Renard, E., Langlois, V., Versatile photochemical surface modification of biopolyester microfibrous scaffolds with photogenerated silver nanoparticles for antibacterial activity. Adv. Healthc. Mater. 2 (2013), 1008–1018.
157. [157] Xu, X., Zhang, J.-F., Fan, Y., Fabrication of cross-linked polyethyleneimine microfibers by reactive electrospinning with in situ photo-cross-linking by UV radiation. Biomacromolecules 11 (2010), 2283–2289.
158. [158] Stefani, I., Cooper-White, J.J., Development of an in-process UV-crosslinked, electrospun PCL/aPLA-co-TMC composite polymer for tubular tissue engineering applications. Acta Biomater. 36 (2016), 231–240.
159. [159] Wang, J.-S., Matyjaszewski, K., Controlled/“living” radical polymerization. atom transfer radical polymerization in the presence of transition-metal complexes. J. Am. Chem. Soc. 117 (1995), 5614–5615.
160. [160] Ran, J., Wu, L., Zhang, Z., Xu, T., Atom transfer radical polymerization (ATRP): a versatile and forceful tool for functional membranes. Prog. Polym. Sci. 39 (2014), 124–144.
161. [161] Patten, T.E., Matyjaszewski, K., Atom transfer radical polymerization and the synthesis of polymeric materials. Adv. Mater. 10 (1998), 901–915.
162. [162] Coessens, V., Pintauer, T., Matyjaszewski, K., Functional polymers by atom transfer radical polymerization. Prog. Polym. Sci. 26 (2001), 337–377.
163. [163] Kato, M., Kamigaito, M., Sawamoto, M., Higashimura, T., Polymerization of Methyl methacrylate with the carbon Tetrachloride/dichlorotris- (triphenylphosphine)ruthenium(II)/methylaluminum Bis(2,6-di-tert-butylphenoxide) initiating system: possibility of living radical polymerization. Macromolecules 28 (1995), 1721–1723.
164. [164] Wang, J.-S., Matyjaszewski, K., Controlled/“Living” radical polymerization. Halogen atom transfer radical polymerization promoted by a Cu(I)/Cu(II) redox process. Macromolecules 28 (1995), 7901–7910.
165. [165] Percec, V., Barboiu, B., “Living” radical polymerization of styrene initiated by arenesulfonyl chlorides and CuI(bpy)nCl. Macromolecules 28 (1995), 7970–7972.
166. [166] Kamigaito, M., Ando, T., Sawamoto, M., Metal-catalyzed living radical polymerization. Chem. Rev. 101 (2001), 3689–3745.
167. [167] Ma, H., Wells, M., Beebe, T.P., Chilkoti, A., Surface-initiated atom transfer radical polymerization of oligo(ethylene glycol) methyl methacrylate from a mixed self-assembled monolayer on gold. Adv. Funct. Mater. 16 (2006), 640–648.
168. [168] Bao, Z., Bruening, M.L., Baker, G.L., Control of the density of polymer brushes prepared by surface-initiated atom transfer radical polymerization. Macromolecules 39 (2006), 5251–5258.
169. [169] Matyjaszewski, K., Xia, J., Fundamentals of atom transfer radical polymerization. Matyjaszewski, K., Davis, T.P., (eds.) Handbook of Radical Polymerization, 2002, John Wiley & Sons, Inc., New York, 523–628.
170. [170] Guo-Dong, F., Fang, Y., Zhigang, L., Xinsong, L., Solvent-resistant antibacterial microfibers of self-quaternized block copolymers from atom transfer radical polymerization and electrospinning. J. Mater. Chem. 18 (2008), 859–867.
171. [171] Spasova, M., Manolova, N., Paneva, D., Mincheva, R., Dubois, P., Rashkov, I., Maximova, V., Danchev, D., Polylactide stereocomplex-based electrospun materials possessing surface with antibacterial and hemostatic properties. Biomacromolecules 11 (2010), 151–159.
172. [172] Alizadeh, R., Karimi, M., Mofrad, R., Entezami, A., Preparation of electrospun electroactive nanofibers of aniline/2-hydroxyethyl methacrylate/ε-caprolactone brush copolymer blended with polycaprolactone. J. Polym. Res. 21 (2014), 1–9.
173. [173] Yuan, W., Feng, Y., Wang, H., Yang, D., An, B., Zhang, W., Khan, M., Guo, J., Hemocompatible surface of electrospun nanofibrous scaffolds by ATRP modification. Mater. Sci. Eng. C 33 (2013), 3644–3651.
174. [174] Yano, T., Yah, W.O., Yamaguchi, H., Terayama, Y., Nishihara, M., Kobayashi, M., Takahara, A., Precise control of surface physicochemical properties for electrospun fiber mats by surface-initiated radical polymerization. Polym. J. 43 (2011), 838–848.
175. [175] Özçam, A.E., Roskov, K.E., Genzer, J., Spontak, R.J., Responsive PET nano/microfibers via surface-initiated polymerization. ACS Appl. Mater. Interfaces 4 (2012), 59–64.
176. [176] Ozcam, A.E., Roskov, K.E., Spontak, R.J., Genzer, J., Generation of functional PET microfibers through surface-initiated polymerization. J. Mater. Chem. 22 (2012), 5855–5864.
177. [177] Tsang, K., Hou, X., Coad, B., Forsythe, J.S., Meagher, L., Thissen, H.W., Ameringer, T., Evans, R.A., Pasic, P., Polymer Coatings. 2010.
178. [178] Higaki, Y., Kabayama, H., Tao, D., Takahara, A., Surface functionalization of electrospun poly(butylene terephthalate) fibers by surface-initiated radical polymerization. Macromol. Chem. Phys. 216 (2015), 1103–1108.
179. [179] Feng, Q., Hou, D., Zhao, Y., Xu, T., Menkhaus, T.J., Fong, H., Electrospun regenerated cellulose nanofibrous membranes surface-grafted with polymer chains/brushes via the atom transfer radical polymerization method for catalase immobilization. ACS Appl. Mater. Interfaces 6 (2014), 20958–20967.
180. [180] Rodda, A.E., Ercole, F., Glattauer, V., Gardiner, J., Nisbet, D.R., Healy, K.E., Forsythe, J.S., Meagher, L., Low fouling electrospun scaffolds with clicked bioactive peptides for specific cell attachment. Biomacromolecules 16 (2015), 2109–2118.
181. [181] Chen, W., He, S., Pan, W., Jin, Y., Zhang, W., Jiang, X., Strategy for the modification of electrospun fibers that allows diverse functional groups for biomolecular entrapment. Chem. Mater. 22 (2010), 6212–6214.
182. [182] Fu, G., Lei, J., Yao, C., Li, X., Yao, F., Nie, S., Kang, E., Neoh, K., Core− sheath nanofibers from combined atom transfer radical polymerization and electrospinning. Macromolecules 41 (2008), 6854–6858.
183. [183] Harrison, R.H., Steele, J.A.M., Chapman, R., Gormley, A.J., Chow, L.W., Mahat, M.M., Podhorska, L., Palgrave, R.G., Payne, D.J., Hettiaratchy, S.P., Dunlop, I.E., Stevens, M.M., Modular and versatile spatial functionalization of tissue engineering scaffolds through fiber-initiated controlled radical polymerization. Adv. Funct. Mater. 25 (2015), 5748–5757.
184. [184] Brandl, C., Greiner, A., Agarwal, S., Quick polymerization from electrospun macroinitiators for making thermoresponsive nanofibers. Macromol. Mater. Eng. 296 (2011), 858–864.
185. [185] Xu, F.J., Wang, Z.H., Yang, W.T., Surface functionalization of polycaprolactone films via surface-initiated atom transfer radical polymerization for covalently coupling cell-adhesive biomolecules. Biomaterials 31 (2010), 3139–3147.
186. [186] Xu, F.J., Zheng, Y.Q., Zhen, W.J., Yang, W.T., Thermoresponsive poly(N-isopropyl acrylamide)-grafted polycaprolactone films with surface immobilization of collagen. Colloids Surfaces B Biointerfaces 85 (2011), 40–47.
187. [187] Gualandi, C., Vo, C.D., Focarete, M.L., Scandola, M., Pollicino, A., Di Silvestro, G., Tirelli, N., Advantages of surface-initiated ATRP (SI-ATRP) for the functionalization of electrospun materials. Macromol. Rapid Commun. 34 (2013), 51–56.
188. [188] Kryuchkov, M.A., Detrembleur, C., Jérôme, R., Prud'homme, R.E., Bazuin, C.G., Synthesis and thermal properties of linear amphiphilic diblock copolymers of l-lactide and 2-Dimethylaminoethyl methacrylate. Macromolecules 44 (2011), 5209–5217.
189. [189] Paneva, D., Bougard, F., Manolova, N., Dubois, P., Rashkov, I., Novel electrospun poly(ε-caprolactone)-based bicomponent nanofibers possessing surface enriched in tertiary amino groups. Eur. Polym. J. 44 (2008), 566–578.
190. [190] Ameringer, T., Ercole, F., Tsang, K.M., Coad, B.R., Hou, X., Rodda, A., Nisbet, D.R., Thissen, H., Evans, R.A., Meagher, L., Surface grafting of electrospun fibers using ATRP and RAFT for the control of biointerfacial interactions. Biointerphases, 8, 2013, 16.
191. [191] Wang, X., Ye, Q., Gao, T., Liu, J., Zhou, F., Self-assembly of catecholic macroinitiator on various substrates and surface-initiated polymerization. Langmuir ACS J. Surfaces Colloids 28 (2012), 2574–2581.
192. [192] Deng, J., Liu, X., Ma, L., Cheng, C., Shi, W., Nie, C., Zhao, C., Heparin-mimicking multilayer coating on polymeric membrane via LbL assembly of cyclodextrin-based supramolecules. Acs Appl. Mater. Interfaces 6 (2014), 21603–21614.
193. [193] Xiang, T., Yue, W.-W., Wang, R., Liang, S., Sun, S.-D., Zhao, C.-S., Surface hydrophilic modification of polyethersulfone membranes by surface-initiated ATRP with enhanced blood compatibility. Colloids Surfaces B-Biointerfaces 110 (2013), 15–21.
194. [194] Surman, F., Riedel, T., Bruns, M., Kostina, N.Y., Sedlakova, Z., Rodriguez-Emmenegger, C., Polymer brushes interfacing blood as a route toward high performance blood contacting devices. Macromol. Biosci. 15 (2015), 636–646.
195. [195] Patil, R.R., Turgman-Cohen, S., Šrogl, J., Kiserow, D., Genzer, J., On-demand degrafting and the study of molecular weight and grafting density of poly(methyl methacrylate) brushes on flat silica substrates. Langmuir ACS J. Surfaces Colloids 31 (2015), 2372–2381.
196. [196] Yoshikawa, C., Zhang, K., Zawadzak, E., Kobayashi, H., A novel shortened electrospun nanofiber modified with a 'concentrated' polymer brush. Sci. Technol. Adv. Mater. 12 (2011), 1–7.
197. [197] Menkhaus, T.J., Varadaraju, H., Zhang, L., Schneiderman, S., Bjustrom, S., Liu, L., Fong, H., Electrospun nanofiber membranes surface functionalized with 3-dimensional nanolayers as an innovative adsorption medium with ultra-high capacity and throughput. Chem. Commun. 46 (2010), 3720–3722.
198. [198] Liu, X., Yang, D., Jin, G., Ma, H., A nanofibrous membrane with tunable surface chemistry: preparation and application in protein microarrays. J. Mater. Chem. 20 (2010), 10228–10233.
199. [199] Shi, C., Yuan, W., Khan, M., Li, Q., Feng, Y., Yao, F., Zhang, W., Hydrophilic PCU scaffolds prepared by grafting PEGMA and immobilizing gelatin to enhance cell adhesion and proliferation. Mater. Sci. Eng. C 50 (2015), 201–209.
200. [200] Chiefari, J., Chong, Y.K., Ercole, F., Krstina, J., Jeffery, J., Le, T.P.T., Mayadunne, R.T.A., Meijs, G.F., Moad, C.L., Moad, G., Rizzardo, E., Thang, S.H., Living free-radical polymerization by reversible addition−fragmentation chain transfer: the RAFT process. Macromolecules 31 (1998), 5559–5562.
201. [201] Boyer, C., Bulmus, V., Davis, T.P., Ladmiral, V., Liu, J., Perrier, S., Bioapplications of RAFT polymerization. Chem. Rev. 109 (2009), 5402–5436.
202. [202] Moad, G., Rizzardo, E., Thang, S.H., Living radical polymerization by the RAFT process. Aust. J. Chem. 58 (2005), 379–410.
203. [203] Demirci, S., Celebioglu, A., Uyar, T., Surface modification of electrospun cellulose acetate nanofibers via RAFT polymerization for DNA adsorption. Carbohydr. Polym. 113 (2014), 200–207.
204. [204] Chikhaoui-Grioune, D., Aqil, A., Zalfen, A.M., Benaboura, A., Jérome, C., Controlled radical polymerization of N-vinylphthalimide using carboxyl-terminated trithiocarbonate as RAFT agent and preparation of microfibers via electrospinning technique. J. Appl. Polym. Sci. 117 (2010), 1005–1012.
205. [205] Wang, X., Gao, J.-P., Zhao, Q.-L., Huang, J., Mao, G.-L., Wu, W., Ning, Y.-N., Ma, Z., Polymethylene-block-polystyrene copolymers: a new synthetic approach using a combination of polyhomologation and reversible addition-fragmentation chain-transfer polymerization and their microfibers and microspheres fabricated through electrospinning process. J. Polym. Sci. Part A Polym. Chem. 51 (2013), 2892–2899.