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作为一种季节性生物质废弃物，大量飘散的柳絮会造成资源浪费，还会引发环境与安全问题。但柳絮纤维具有的中空管状结构、高比表面积及丰富的羟基官能团等特征赋予了其高值化利用的潜力。本文介绍了柳絮纤维的结构表征方法、微观特征及改性方法，探讨了目前改性方法中的不足，最后介绍了改性柳絮材料在环境传感、能源存储、电磁吸波、柔性电子及生物医学等前沿领域的应用，并对未来柳絮纤维未来的高值化利用进行了展望。
Abstract：As a seasonal biomass waste, the massive dispersion of willow catkins not only causes resource waste, but also poses environmental and safety hazards. However, the hollow tubular structure, high specific surface area, and abundant hydroxyl functional groups endow willow catkin fibers with significant potential for high-value utilization. This paper introduced the structural characterization methods, microstructural features, and modification methods for willow catkin fiber, and discussed the limitations of current modification methods. Finally, the application of modified willow catkin fiber materials in frontier fields such as environmental sensing, energy storage, electromagnetic wave absorption, flexible electronics, and biomedical were discussed, and the future for the high-value utilization of willow catkin fibers were prospected.
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基本信息:
中图分类号:TS102.2
引用信息:
[1]胡忠帅,杨勇,赵欣荣,等.柳絮纤维的结构表征、改性机制与应用研究进展[J].产业用纺织品,2026,44(04):1-9.
基金信息:
德州市研发计划项目(DZSKJ202433)
2025-11-07
2025
2026-04-13
2026-06-03
2026
1
2026-05-29
2026-05-29
2026-05-29