Scholarlink

<p>Biocomposite material are researched and utilized widely in recent decades due to their sustainability and better strength characteristics. Due to their importance and aims to creation of sustainable material, present study evaluate the mechanical, fatigue, thermal stability properties of bio extracted bamboo fiber and tuber waste derived biosilica particle reinforced composite. The composite are developed under hand layup method and as per ASTM guidelines the material strength are evaluated. The composite EPB2 with reinforcement of 3 vol.% of biosilica and 40 vol.% of fiber shows better tensile, flexural, impact and compressive strength of 137&#xa0;MPa, 159&#xa0;MPa, 6.1&#xa0;J, and 147&#xa0;MPa respectively. Moreover, with increase filler concentration of about 5 vol.%, the composite EPB3 shows maximum thermal conductivity and better thermal stability of 0.28 W/mK, and with a decomposition temperature of 382&#xa0;°C respectively. This shows that composite with increase in biosilica particle shows better heat transfer pathway and reduced thermal decomposition. Further, the morphological view of the composite and their bonding arrangements are analysed through Scanning electron microscopy (SEM). Because of such features, the biocomposite material could potentially be applied in areas such as automotive, aviation, military industrial, sports, and other infrastructural sectors, etc.</p>

错误：搜索内容不能为空，请输入英文关键词
错误：关键词超出字数限制，请精简
高级检索

Sustainable Synthesis of Biosilica Nanoparticles from Cassava Peels and Bamboo Fiber-reinforced Epoxy Composite and Analyse their Performances

  • 期刊论文

  • 发表日期：

    2025年11月11日

查看全文
  • A. Srithar,
  • Seeniappan Kaliappan,
  • L. Natrayan,
  • Ramya M

摘要

Biocomposite material are researched and utilized widely in recent decades due to their sustainability and better strength characteristics. Due to their importance and aims to creation of sustainable material, present study evaluate the mechanical, fatigue, thermal stability properties of bio extracted bamboo fiber and tuber waste derived biosilica particle reinforced composite. The composite are developed under hand layup method and as per ASTM guidelines the material strength are evaluated. The composite EPB2 with reinforcement of 3 vol.% of biosilica and 40 vol.% of fiber shows better tensile, flexural, impact and compressive strength of 137 MPa, 159 MPa, 6.1 J, and 147 MPa respectively. Moreover, with increase filler concentration of about 5 vol.%, the composite EPB3 shows maximum thermal conductivity and better thermal stability of 0.28 W/mK, and with a decomposition temperature of 382 °C respectively. This shows that composite with increase in biosilica particle shows better heat transfer pathway and reduced thermal decomposition. Further, the morphological view of the composite and their bonding arrangements are analysed through Scanning electron microscopy (SEM). Because of such features, the biocomposite material could potentially be applied in areas such as automotive, aviation, military industrial, sports, and other infrastructural sectors, etc.