Boosted Flexibility and Densification of Bamboo Weaving Enabling Mold-Adaptive Manufacturing of High-Performance Bamboo-Based Composites
Document Type
Article
Publication Date
3-10-2026
Abstract
The integration of natural bamboo fibers into low-carbon structural composites offers considerable environmental benefits; however, challenges arise due to the unique structure and high stiffness of bamboo, which complicate its incorporation into conventional fiber-reinforced composite manufacturing processes. This study introduces a novel hydrothermal treatment combined with hot press drying strategy (HT-HP) to produce flexible and densified bamboo weaving rapidly. This method facilitated the creation of a bamboo woven composite (HT/PT-C) via vacuum infusion, achieving an impressive bamboo fiber mass fraction of approximately 75%. The HT-HP strategy enhanced the bamboo weaving's flexibility and compactness, enabling efficient production of shaped paving materials. The optimized HT/PT-C exhibited remarkable mechanical properties, with a 45% increase in tensile strength (143 MPa) and a 28% increase in flexural strength (206 MPa) compared to the control composite. Dynamic mechanical analysis indicated a 57.4% increase in storage modulus and improved creep resistance. Investigations using digital image correlation, micro-morphology analysis, and surface energy measurements revealed that these enhancements were due to the self-pre-tensioning effect and reduced surface energy of the bamboo strips post-treatment. Life Cycle Assessment indicates that the scalable HT/PT-C composite presents a sustainable alternative to carbon or glass fiber-reinforced composites, promoting low-carbon engineering in structural applications.
Publication Source (Journal or Book title)
Polymer Composites
First Page
4685
Last Page
4698
Recommended Citation
Luo, Y., Zhou, X., Sun, L., Guo, C., Ou, R., & Fan, Q. (2026). Boosted Flexibility and Densification of Bamboo Weaving Enabling Mold-Adaptive Manufacturing of High-Performance Bamboo-Based Composites. Polymer Composites, 47 (5), 4685-4698. https://doi.org/10.1002/pc.70454