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   <ref-type name="Journal Article">17</ref-type>
   <contributors>
    <authors>
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   </contributors>
   <titles>
    <title></title>
   </titles>
   <dates>
    <year>2019</year>
    <pub-dates>
     <date>2020-09-04</date>
    </pub-dates>
   </dates>
   <doi>10.1016/j.surfcoat.2018.10.068</doi>
   <abstract>This research follows a biomimetic approach for implant surface design, and it concerns surface functionalization for nanostructured Ti Grade 4 with a composite coating obtained by plasma electrolytic oxidation (PEO) with organic pore ﬁller of integrin-active RGD containing peptide (Arg-Gly-Asp-Cys). It was shown that Ti nanostructuring via ECAP-C technique almost two-fold improves its mechanical strength; also, the nanostructuring depassivates the surface, both PEO coated and uncoated. The PEO coating on nano-Ti contains 2–3% more biocompatible elements, amorphous and bio-crystalline phases. The RGD peptide was linked to the surface via phosphonate groups allowing the organic pore ﬁller deposition by dipping method; the RGD presencein the PEO coating pores was proven by the EIS. For the in vitro tests, ﬁbroblasts were used; it was shown that PEO coating on nano-Ti gives43% increasein the numberofcells compared to CG-Ti+PEO;the combination ofPEO coating and RGD peptide on nano-Ti gives 45% increase in the number of cells compared to nano-Ti, and 66% compared to CG-Ti. Therefore, this surface functionalization contributes to the development of Ti implants having high strength and providing improved cell proliferation.</abstract>
   <urls>
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     <url>https://repo.bashgmu.ru/publication/47</url>
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    <pdf-urls>
     <url>https://repo.bashgmu.ru/files/47</url>
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