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Advances in Electrospun Nanofibers: Versatile Materials and Diverse Biomedical Applications |
Electrospining has emerged as a versatile and transformative technique for the fabrication of nanofiber materials, which have shown promising in applications across various biomedical domains. Cutting-edge research in electrospinning technology is centered on enhancing versatility, efficiency, and functionality of electrospun nanofibers through several key facets. These include the development of advanced materials, with ongoing exploration into novel polymer systems spanning synthetic polymers, natural polymers, and polymer blends to broaden the spectrum of achievable properties and functions. Additionally, there is significant emphasis on controlling fiber size, morphology, and alignment. |
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2024-07-01 Read more about this article in source |
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Plant biomass is a sustainable resource created by absorbing and fixing carbon dioxide from the atmosphere. The basic unit of cells is made up of... 07/27/2026
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Diabetic ulcer is a prevalent complication affecting a large number of individuals globally and presents a significant challenge in healthcare, often... 07/27/2026
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The target audience of this is senior undergraduate and graduate students, researchers, and engineering practitioners who are about to enter or... 07/27/2026
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The properties of produced nanofibers are normally too small to be observed with the naked eye. Therefore, advanced equipment is necessary to... 07/27/2026
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We report the nanofiber-reinforced composite electrodes as the highly transparent (~90%) and extremely foldable electrodes with lower sheet... 07/27/2026
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A comparative fractographic analysis for the effect of polymeric nanofiber reinforcements on the tensile behavior of multi-layered epoxy nanocomposites
This study presents a comparative investigation into the effects of four different nanofibers—PA66, PStX, PAN, and PVB—on the mechanical performance and failure mechanisms of epoxy adhesive films. These nanofiber‐reinforced adhesive layers were manufactured via a dry‐reinforcement resin film infusion method and tested under uniaxial tensile loading. Mechanical results showed that PA66 and PStX nanofibers improved tensile strength by up to 25%, primarily by mitigating crack initiation at free edges and promoting effective fiber–matrix bonding. In contrast, PAN nanofibers induced micro‐cracks at the fiber–resin interface, amplifying crack coalescence and reducing strength by 25%. 03/01/2025