10.1007/s40204-020-00144-1

Surface modification of electrospun silk/AMOX/PVA nanofibers by dielectric barrier discharge plasma: physiochemical properties, drug delivery and in-vitro biocompatibility

  1. Laboratory for Plasma Processing of Materials, Department of Physics, Tezpur University, Tezpur, Assam, 784028, IN
  2. Life Sciences Division, Institute of Advanced Study in Science and Technology, Guwahati, Assam, 781035, IN
  3. Department of Molecular Biology and Biotechnology, Tezpur University, Tezpur, Assam, 784028, IN

Published in Issue 2020-11-18

How to Cite

Ojah, N., Borah, R., Ahmed, G. A., Mandal, M., & Choudhury, A. J. (2020). Surface modification of electrospun silk/AMOX/PVA nanofibers by dielectric barrier discharge plasma: physiochemical properties, drug delivery and in-vitro biocompatibility. Progress in Biomaterials, 9(4 (December 2020). https://doi.org/10.1007/s40204-020-00144-1

Abstract

Article Highlights Effect of O 2 DBD plasma treatment time on the surface properties of silk/AMOX/PVA nanofibers. Plasma treatment time of 1 min shows the highest rate of surface modifications in terms of chemical, mechanical, wettability and surface energy improvement. Increase in plasma treatment time up to 5 min results in continuous increasing drug release rate. The plasma treatment time does not cause any hemolytic effect, also improved cell viability and cell attachment with cell spreading is observed after 1−3 min of plasma treatment time.

Keywords

  • Silk,
  • Dielectric barrier discharge,
  • Surface modification,
  • Hydrophilicity,
  • Drug delivery,
  • Biocompatibility

References

  1. Bae et al. (2012) In vitro biocompatibility of various polymer-based microelectrode arrays for retinal prosthesis (pp. 2653-2657)
  2. Balcon et al. (2007) Pulsed RF discharges, glow and filamentary mode at atmospheric pressure in argon (pp. 217-225)
  3. Baltazar-y-Jimenez et al. (2008) Atmospheric air pressure plasma treatment of lignocellulosic fibres: impact on mechanical properties and adhesion to cellulose acetate butyrate (pp. 215-227)
  4. Cestari et al. (2014) Preparing silk fibroin nanofibers through electrospinning: further heparin immobilization toward hemocompatibility improvement (pp. 1762-1767)
  5. Choudhury et al. (2016) Penicillin impregnation on oxygen plasma surface functionalized chitosan/Antheraea assama silk fibroin: studies of antibacterial activity and antithrombogenic property (pp. 475-484)
  6. Chouhan and Mandal (2020) Silk biomaterials in wound healing and skin regeneration therapeutics: from bench to bedside (pp. 24-51)
  7. Chutia et al. (2019) Kinetics of inactivation of peroxidase and polyphenol oxidase intender coconut water by dielectric barrier discharge plasma (pp. 625-629)
  8. Das et al. (2018) Surface modification of electrospun PVA/chitosan nanofibers by dielectric barrier discharge plasma at atmospheric pressure and studies of their mechanical properties and biocompatibility (pp. 1026-1032)
  9. Demirci S, Doğan A, Sahin F (2018) Role of adipose‐derived stem cells in wound healing: an update from isolation to transplantation. Wound healing: stem cells repair and restorations, basic and clinical aspects, pp 133–147
  10. Dyakonov et al. (2012) Design and characterization of a silk-fibroin-based drug delivery platform using Naproxen as a model drug
  11. Foruzan et al. (2018) Comparative study on various dielectric barriers and their effect on breakdown voltage (pp. 51-59)
  12. Gomide et al. (2012) In vitro and in vivo osteogenic potential of bioactive glass–PVA hybrid scaffolds colonized by mesenchymal stem cells
  13. Hassan et al. (2014) Role of adipose-derived stem cells in wound healing (pp. 313-325)
  14. Hetemi and Pinson (2017) Surface functionalisation of polymers
  15. Jeong et al. (2009) Plasma-treated silk fibroin nanofibers for skin regeneration (pp. 222-228)
  16. Kajdic et al. (2019) Electrospun nanofibers for customized drug-delivery systems (pp. 672-681)
  17. Krishnakumar et al. (2019) Importance of crosslinking strategies in designing smart biomaterials for bone tissue engineering: a systematic review (pp. 941-954)
  18. Kumar and Borah (2016) Effect of plasma irradiation on biocompatibility and cell adhesion of polyaniline/chitosan nanocomposites towards Hep G2 and PBMC cells (pp. 146-155)
  19. Kundu et al. (2014) Isolation and processing of silk proteins for biomedical applications (pp. 70-77)
  20. Lee et al. (2014) Hydrophobization of silk fibroin nanofibrous membranes by fluorocarbon plasma treatment to modulate cell adhesion and proliferation behavior (pp. 746-752)
  21. Liu et al. (2015) Silk structure and degradation (pp. 122-128)
  22. Ma et al. (2014) Immunobiology of mesenchymal stem cells (pp. 216-225)
  23. Meghdadi et al. (2019) Cold atmospheric plasma as a promising approach for gelatin immobilization on poly(ε-caprolactone) electrospun scaffolds (pp. 65-75)
  24. Molavi et al. (2020) Enhanced biological properties of collagen/chitosan-coated poly(ε-caprolactone) scaffold by surface modification with GHK-Cu peptide and 58S bioglass (pp. 25-34)
  25. Nedela et al. (2017) Surface modification of polymer substrates for biomedical applications
  26. Nuno et al. (2014) Biocompatibility and hemocompatibility of polyvinyl alcohol hydrogel used for vascular grafting—In vitro and in vivo studies (pp. 4262-4275)
  27. Ojah et al. (2019) Surface modification of core-shell silk/PVA nanofibers by oxygen dielectric barrier discharge plasma: studies of physico-chemical properties and drug release behavior (pp. 219-229)
  28. Ojah et al. (2019) Chitosan coated silk fibroin surface modified by atmospheric dielectric-barrier discharge (DBD) plasma: a mechanically robust drug release system (pp. 1-16)
  29. Ozkan et al. (2016) The influence of power and frequency on the filamentary behaviorof a flowing DBD application to the splitting of CO2
  30. Petlin et al. (2017) Plasma treatment as an efficient tool for controlled drug release from polymeric materials: a review (pp. 57-74)
  31. Pollini and Paladini (2020) Bioinspired materials for wound healing application: the potential of silk fibroin
  32. Queen et al. (1987) The preclinical evaluation of the water vapour transmission rate through burn wound dressings (pp. 367-371)
  33. Ray and Subramanyam (2016) CO2 decomposition in a packed DBD plasma reactor: influence of packaging materials
  34. Rezaei et al. (2016) Atmospheric-pressure DBD plasma-assisted surface modification of polymethyl methacrylate: a study on cell growth/proliferation and antibacterial properties (pp. 641-651)
  35. Ribeiro et al. (2016) Influence of different surface modification treatments on silk biotextiles for tissue engineering applications (pp. 496-507)
  36. Saeed et al. (2017) Designing and fabrication of curcumin loaded PCL/PVA multi-layer nanofibrous electrospun structures as active wound dressing (pp. 39-48)
  37. Shababdoust et al. (2018) Fabrication of curcumin-loaded electrospun nanofiberous polyurethanes with anti-bacterial activity (pp. 23-33)
  38. Simor et al. (2010) The influence of surface DBD plasma treatment on the adhesion of coatings to high-tech textiles (pp. 77-97)
  39. Subia and Kundu (2012) Drug loading and release on tumor cells using silk fibroin–albumin nanoparticles as carriers
  40. Theapsak et al. (2010) Preparation of chitosan-coated polyethylene packagingfilms by DBD plasma treatment (pp. 2474-2482)
  41. Tomeh et al. (2019) Silk fibroin as a functional biomaterial for drug and gene delivery
  42. Ujang et al. (2014) Physical properties and biocompatibility of oligochitosan membrane film as wound dressing (pp. 155-162)
  43. Wang et al. (2006) Stem cell-based tissue engineering with silk biomaterials (pp. 6064-6082)
  44. Wang et al. (2011) Effects of CF4 plasma treatment on the moisture uptake, diffusion and WVTR of poly(ethylene terephthalate) flexible films (pp. 318-324)
  45. Wang et al. (2012) Comparisons of discharge characteristics of a dielectric barrier discharge with electrode structures (pp. 960-964)
  46. Williams et al. (2011) Isolation and culture of porcine adipose tissue-derived somatic stem cells (pp. 77-86)
  47. Xiaoping et al. (2012) Electrical characteristics of dielectric-barrier discharges in atmospheric pressure air using a power-frequency voltage source
  48. Xu et al. (2016) Controlled water vapor transmission rate promotes wound-healing via wound re-epithelialization and contraction enhancement
  49. Yoshida et al. (2013) Surface modification of polymers by plasma treatments for the enhancement of biocompatibility and controlled drug release (pp. 99-107)
  50. Yucel et al. (2014) Silk-based biomaterials for sustained drug delivery (pp. 381-397)
  51. Zhang et al. (2019) Functionalization of polyethylene terephthalate fabrics using nitrogen plasma and silk fibroin/chitosan microspheres