Scholarlink

<p>To enhance the bonding strength between the active material and the core yarn current collector through nano-entanglement, bacterial cellulose/carbon nanotube (BC/CNT) nanofiber yarns were developed using in situ cultivation and wet twisting. This method utilizes the large specific surface area and abundant active functional groups of BC-based nanofibers. Subsequently, V<sub>2</sub>O<sub>5</sub>/BC/CNT composite yarn electrodes were fabricated, exhibiting a core-sheath structure with excellent conformal characteristics. The influence of ultrasound duration on the conductivity and electrochromic performance of composite yarns was investigated. The initial discharge-specific capacity was recorded as 105.3 mAh/g, with a capacity retention rate of 60.2% after 100 cycles. The composite yarn exhibited 100 reversible transitions between yellow and blue, with reduction and oxidation response times of 2.35&#xa0;s and 3.3&#xa0;s, respectively. The modulation amplitude at 532&#xa0;nm during the initial cycle was 20.31%, and after 100 cycles, the modulation amplitude retention rate remained at 68%.</p> Graphical Abstract <p></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

Tailoring Core-Spun Yarns of Biomass Nanofibrils Assembled via Wet Twisting for Energy Storage and Electrochromism

  • 期刊论文

  • 发表日期：

    2025年6月18日

查看全文
  • Huimin Zhou,
  • Hongyou Chen,
  • Hui Cao,
  • Liangkui Peng,
  • Yingqi Liu,
  • XiuxiuZhang,
  • Wenli Wang,
  • Lu Cheng,
  • Qufu Wei,
  • Xin Xia

摘要

To enhance the bonding strength between the active material and the core yarn current collector through nano-entanglement, bacterial cellulose/carbon nanotube (BC/CNT) nanofiber yarns were developed using in situ cultivation and wet twisting. This method utilizes the large specific surface area and abundant active functional groups of BC-based nanofibers. Subsequently, V2O5/BC/CNT composite yarn electrodes were fabricated, exhibiting a core-sheath structure with excellent conformal characteristics. The influence of ultrasound duration on the conductivity and electrochromic performance of composite yarns was investigated. The initial discharge-specific capacity was recorded as 105.3 mAh/g, with a capacity retention rate of 60.2% after 100 cycles. The composite yarn exhibited 100 reversible transitions between yellow and blue, with reduction and oxidation response times of 2.35 s and 3.3 s, respectively. The modulation amplitude at 532 nm during the initial cycle was 20.31%, and after 100 cycles, the modulation amplitude retention rate remained at 68%.

Graphical Abstract