ResearchGate |
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From fibers to fuel cells: advanced nanofiber innovations and perovskite strategies for enhanced SOFC efficiency and stability |
![]() Solid oxide fuel cells (SOFCs) are promising electrochemical conversion devices due to their high efficiency, wide fuel selection, and potential solutions for environmental problems associated with fuel scarcity and combustion. Over the past decade, extensive research has focused on improving the comprehensive performance of SOFCs in the intermediate temperature range to facilitate their commercialization. The nanoscale microstructure offers promising opportunities for the further development of SOFCs. Besides component optimization, one-dimensional fibrous structured electrodes exhibit outstanding performance, providing new ideas for developing electrode materials suitable for medium to |
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2025-02-01 Read more about this article in source |
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Crafting high-temperature stable and hydrophobic nanofiber membranes for particulate matter filtration
The demand for advanced applications in nanofiber technology has been increasing in recent years, one of which is in the field of particulate matter... 04/30/2025
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Electrospun nanofiber membranes are innovative materials produced through electrospinning process, a technique that generates ultrathin fibers from... 04/23/2025
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Electrospun nanofiber-based composites are new category of materials with diverse properties and functionalities. Electrospun nanofibers have... 04/23/2025
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Recent years have seen a growing interest in modifying electrospun nanofibrous mats to achieve optical transparency for various applications. For... 04/12/2025
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ResearchGate more ...
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