Adaptable Superfibers as Implant Material
Electrospun fiber nonwoven materials of different polymer classes provide promising perspectives in almost all fields of application, including medical science. In this paper we present the fiber generation of selected biostable polymers (PBT, TPC-ET, PA 6.12 and PVDF) by direct electrospinning, as...
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2020-09-01
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Series: | Current Directions in Biomedical Engineering |
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doaj-d83e2836ba4d4e548340d534b6a915ed2021-02-28T21:53:02ZengDe GruyterCurrent Directions in Biomedical Engineering2364-55042020-09-016346546810.1515/cdbme-2020-3120cdbme-2020-3120Adaptable Superfibers as Implant MaterialIllner Sabine0Ortelt Jonathan1Arbeiter Daniela2Khaimov Valeria3Wulf Katharina4Oschatz Stefan5Reske Thomas6Senz Volkmar7Schmitz Klaus- Peter8Grabow Niels9Institute for Biomedical Engineering, University Medical Center Rostock, Friedrich- Barnewitz-Str. 4, D-18119Rostock, GermanyInstitute for Biomedical Engineering, University Medical Center Rostock,Rostock, GermanyInstitute for Biomedical Engineering, University Medical Center Rostock,Rostock, GermanyInstitute for Biomedical Engineering, University Medical Center Rostock,Rostock, GermanyInstitute for Biomedical Engineering, University Medical Center Rostock,Rostock, GermanyInstitute for Biomedical Engineering, University Medical Center Rostock,Rostock, GermanyInstitute for Biomedical Engineering, University Medical Center Rostock,Rostock, GermanyInstitute for Biomedical Engineering, University Medical Center Rostock,Rostock, GermanyInstitute for Biomedical Engineering, University Medical Center Rostock,Rostock, GermanyInstitute for Biomedical Engineering, University Medical Center Rostock,Rostock, GermanyElectrospun fiber nonwoven materials of different polymer classes provide promising perspectives in almost all fields of application, including medical science. In this paper we present the fiber generation of selected biostable polymers (PBT, TPC-ET, PA 6.12 and PVDF) by direct electrospinning, as an extremely powerful tool for manufacturing of new superfiber implant materials. This initial study includes the variation of some relevant process parameters, such as polymer concentrations or electrode spacing. The influence on fiber morphology, tensile strength and biocompatibility is shown. The results presented indicate that the choice and combination of materials is crucial for the application on load-bearing implants, independent of the processing technology and thus of the fiber bonding, delamination or fiber strength.http://www.degruyter.com/view/j/cdbme.2020.6.issue-3/cdbme-2020-3120/cdbme-2020-3120.xml?format=INTelectrospinningnanofiberpolybutylene terephthalatepolyamidepolyester elastomerpolyvinylidene fluoride |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Illner Sabine Ortelt Jonathan Arbeiter Daniela Khaimov Valeria Wulf Katharina Oschatz Stefan Reske Thomas Senz Volkmar Schmitz Klaus- Peter Grabow Niels |
spellingShingle |
Illner Sabine Ortelt Jonathan Arbeiter Daniela Khaimov Valeria Wulf Katharina Oschatz Stefan Reske Thomas Senz Volkmar Schmitz Klaus- Peter Grabow Niels Adaptable Superfibers as Implant Material Current Directions in Biomedical Engineering electrospinning nanofiber polybutylene terephthalate polyamide polyester elastomer polyvinylidene fluoride |
author_facet |
Illner Sabine Ortelt Jonathan Arbeiter Daniela Khaimov Valeria Wulf Katharina Oschatz Stefan Reske Thomas Senz Volkmar Schmitz Klaus- Peter Grabow Niels |
author_sort |
Illner Sabine |
title |
Adaptable Superfibers as Implant Material |
title_short |
Adaptable Superfibers as Implant Material |
title_full |
Adaptable Superfibers as Implant Material |
title_fullStr |
Adaptable Superfibers as Implant Material |
title_full_unstemmed |
Adaptable Superfibers as Implant Material |
title_sort |
adaptable superfibers as implant material |
publisher |
De Gruyter |
series |
Current Directions in Biomedical Engineering |
issn |
2364-5504 |
publishDate |
2020-09-01 |
description |
Electrospun fiber nonwoven materials of different polymer classes provide promising perspectives in almost all fields of application, including medical science. In this paper we present the fiber generation of selected biostable polymers (PBT, TPC-ET, PA 6.12 and PVDF) by direct electrospinning, as an extremely powerful tool for manufacturing of new superfiber implant materials. This initial study includes the variation of some relevant process parameters, such as polymer concentrations or electrode spacing. The influence on fiber morphology, tensile strength and biocompatibility is shown. The results presented indicate that the choice and combination of materials is crucial for the application on load-bearing implants, independent of the processing technology and thus of the fiber bonding, delamination or fiber strength. |
topic |
electrospinning nanofiber polybutylene terephthalate polyamide polyester elastomer polyvinylidene fluoride |
url |
http://www.degruyter.com/view/j/cdbme.2020.6.issue-3/cdbme-2020-3120/cdbme-2020-3120.xml?format=INT |
work_keys_str_mv |
AT illnersabine adaptablesuperfibersasimplantmaterial AT orteltjonathan adaptablesuperfibersasimplantmaterial AT arbeiterdaniela adaptablesuperfibersasimplantmaterial AT khaimovvaleria adaptablesuperfibersasimplantmaterial AT wulfkatharina adaptablesuperfibersasimplantmaterial AT oschatzstefan adaptablesuperfibersasimplantmaterial AT reskethomas adaptablesuperfibersasimplantmaterial AT senzvolkmar adaptablesuperfibersasimplantmaterial AT schmitzklauspeter adaptablesuperfibersasimplantmaterial AT grabowniels adaptablesuperfibersasimplantmaterial |
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1724247540185956352 |