Mar 2025, Volume 4 Issue 2
    

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  • Hongbin Li, Rongrong Tang, Jiliang Dai, Zixuan Wang, Shiqi Meng, Xiang Zhang, Feng Cheng

    In recent years, flax fiber as a green and renewable resources have attracted considerable attention to be used as reinforcement in composites, using various technology. This review presents a summary of recent developments of flax fiber-based functional composites toward energy, biomedical, and environment. Firstly, we analyze the design and fabrication strategies, which are used for preparation of flax-based functional composites. The most promising applications of flax fiber-based composites are discussed subsequently. It is believed that flax fiber as a functional composites will play a crucial role in the field of energy, biomedical, and environment mainly attributed to its unique properties, such as specific mechanical properties, good biocompatibility, eco-friendliness, cost-effectiveness, and amenability to various functional design and manufacturing needs.

  • Jiajia Ma, Nan Zhang, Ying Cheng, Xingran Kou, Yunwei Niu, Xiangyu Jin, Qinfei Ke, Yi Zhao

    Disposable hygiene products have evolved into the important parts for millions of people around the world, enhancing the convenience of daily lives. However, development of the disposable hygiene products is restricted by unsustainable production technology, complicated operation process, and poor liquid absorption performance of the absorbent core. Herein, integrated and three-dimensional (3D) multifunctional superabsorbent nonwovens with liquid-triggered fragrance release was prepared via green, fast and scalable multi effect hot-air anchoring method which physically crosslinking the joint thermo-bonding fibers and anchoring fragrance microcapsules/super absorbent polymer (SAP) onto adjacent thermo-bonding fibers simultaneously. The resulting composite nonwovens could three-dimensionally absorb water 33.14 times of its own weight without gel blockage between SAP, and correspondingly release increased intensity fragrance along with enhancing amount of water absorption. Absorption rate t1 and t2 is 83.62% and 50.62% higher than the commercial specimen respectively, and the air permeability is increased by 226.88% compared with the commercial specimen. The superabsorbent nonwovens with controllable fragrance release and odorant synergistic has the potential to be practically applied to functional textiles fields because of the excellent liquid absorption and controlled fragrance release performance, and is easy to be produced on a sustainable, pollution-free and large-scale industrial production.

    Graphic Abstract