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<p>Natural fibers and particles have become more important in a range of industrial and construction applications recently, including slabs, panels, beams, concrete, etc. This research employed compressive moulding to create flax fiber reinforced epoxy biocomposites with a diameter of 12 mm, as well as biofiller (flax particles) and epoxy biocomposites reinforced with nano silica particles. Six distinct biocomposite rods were made using the stacking sequence EFC, EFBC, EFBSC1, EFBSC2, EFBSC3, and EFBSC4. The materials included 35 weight percent (wt%) flax fiber, 5 wt% flax particles and nano silica at wt% levels of 1 %, 3 %, 5 % and 7 % that were replaced with epoxy. Mechanical, thermal and morphological experiments were conducted to evaluate the biocomposites further. With 35 wt% flax fiber, 5 wt% biofiller and 5 wt% nano silica, the EFBSC3 biocomposite has exceptional mechanical strength when compared to the other five biocomposites.</p>

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Comprehensive analysis of mechanical, thermal and morphological properties of flax fiber, bio-filler and nano-silica reinforced epoxy biocomposite rods

  • 期刊论文

  • 发表日期：

    2025年9月19日

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  • Barla Madhavi,
  • Katakam SatyaNarayana,
  • Donti Ratnam Srinivasan,
  • Akhilesh Kumar Singh,
  • Akshay Dilip Anjikar,
  • Shilpa Bhimrao Sahare,
  • Raghuvaran Sivanandham,
  • Manish Radheshyam Moroliya,
  • Rengaiah Govindarajan Padmanabhan

摘要

Natural fibers and particles have become more important in a range of industrial and construction applications recently, including slabs, panels, beams, concrete, etc. This research employed compressive moulding to create flax fiber reinforced epoxy biocomposites with a diameter of 12 mm, as well as biofiller (flax particles) and epoxy biocomposites reinforced with nano silica particles. Six distinct biocomposite rods were made using the stacking sequence EFC, EFBC, EFBSC1, EFBSC2, EFBSC3, and EFBSC4. The materials included 35 weight percent (wt%) flax fiber, 5 wt% flax particles and nano silica at wt% levels of 1 %, 3 %, 5 % and 7 % that were replaced with epoxy. Mechanical, thermal and morphological experiments were conducted to evaluate the biocomposites further. With 35 wt% flax fiber, 5 wt% biofiller and 5 wt% nano silica, the EFBSC3 biocomposite has exceptional mechanical strength when compared to the other five biocomposites.