4.3 Article

ACCURATE FABRICATION OF ALIGNED NANOFIBERS VIA A DOUBLE-NOZZLE NEAR-FIELD ELECTROSPINNING

期刊

THERMAL SCIENCE
卷 23, 期 4, 页码 2143-2150

出版社

VINCA INST NUCLEAR SCI
DOI: 10.2298/TSCI1904143X

关键词

near-field electrospinning; double-nozzle; aligned nanofibers; process; crimped fibers

资金

  1. Science and Technology Project of Guangdong Province [2017B090911012]
  2. University Innovation and Entrepreneurship Education Major Project of Guangzhou City [201709P05]
  3. Project of Science and Technology of Foshan City [2015IT100152]
  4. Key Project of Science and Technology of Guangdong Province, China [2015B010124001]
  5. Applied Science and Technology Development Foundation of Guangdong [2015B090921007]
  6. Guangdong Provincial Natural Science Foundation [2015A030312008]
  7. National Natural Science Foundation of China [51305084]
  8. Guangdong High-level Personnel of Special Support Program (Outstanding young scholar in science and technology innovation) [2014TQ01X212]
  9. Training program for outstanding young teachers in higher education institutions of Guangdong Province [YQ2015056]
  10. Guangzhou Science and Technology Plan [201803010065]
  11. Science and Technology Planning Project of Guangzhou City of China [201604016084]

向作者/读者索取更多资源

The near-field electrospinning is considered as one of the most effective techniques to direct-write aligned fibers which can be applied to various high-tech areas, including energy harvester, tissue engineering, and wearable sensors. For large area aligned pattern printing, the multi-nozzle electrohydrodynamic printing is an efficient method to enhance productivity. As a branch of electrohydrodynamic printing technology, the near-field electrospinning is a crucial concern to make an investigation for the formation of aligned nanofibers. Here we fabricated various nanostructures from beaded fibers to aligned fibers and crimped fibers by the double-nozzle near-field electrospinning process. We found three key parameters affecting the process, including the collector speed, the applied voltage, and the electrode-to-collector distance, and the collector speed is the key factor affecting the crimped frequency. This paper provides a reliable experimental basis and theoretical guidance for the multi-nozzle near-field electrospinning to accurately direct-write microfibers and nanofibers.

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