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Updated: Jan 10, 2026

Multiscale Structures Aggregated by Imprinted Nanofibers for Functional Surfaces
Published on: September 11, 2018
Synergistic effect of cell structure and surface engineering: High-Aspect-Ratio nanofiber production and applications
Zebing Xiao1, Yutong Xiong1, Yonghua Zhang1
1State Key Laboratory of Advanced Papermaking and Paper-based Materials, South China University of Technology, Guangzhou 510640, PR China.
Abstract:
Bamboo pulp fines (BPF) are defined as bamboo pulp waste. BPF, including fine fibers and abundant non-fibrous cells, are detrimental to the performance of paper and are usually regarded as waste and discarded. In this work, inspired by the loose structure of non-fibrous cell walls in bamboo, a mild method for converting BPF into CNFs was developed. By leveraging the loose structure of BPF, high-density surface carboxyl groups were introduced via low-toxic (relatively less hazardous than nitro-based oxidants) maleic anhydride (MAH) esterification reactions, significantly enhancing dispersibility and interfacial compatibility. Combined with gentle mechanical disintegration, successfully resulting in CNFs (M-CNFs) with a diameter of approximately 2.6 nm, an aspect ratio exceeding 1000, a carboxyl content of 1.45 mmol/g, and a yield of approximately 98%. Furthermore, M-CNF-based nanofilms exhibited exceptional mechanical properties, achieving 107 MPa tensile strength with unique stress-dispersion mechanisms. The resulting M-CNFs serve as sustainable building blocks for multidimensional advanced cellulose materials and emulsion stabilizers. This method-produced M-CNFs offer advantages including ultrahigh aspect ratios, colloidal stability, high yield, and significant application potential, establishing a high-value valorization route for bamboo pulp waste.
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