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ACS Sustainable Chemistry & Engineering · 2024 · IF 7.1

All-Cellulose Bioplastics from Waste Wood Particles

Jing Zhou,Muqiu You,Jinhao Xu,Yongcan Jin,Dagang Li,Zhaoyang Xu,Chuchu Chen

The concerning accumulation of nonbiodegradable plastic films in the environment and the associated risks have prompted a vigorous quest for biobased degradable substitutes. However, creating biomass-based plastics with a combination of high mechanical strength, water resistance, and rapid degradation in a natural environment presents a great challenge. Herein, we report a facile method to develop high-performance all-cellulose bioplastics from waste wood particles by low-energy microfibrillation and simple oxidation. The resulting oxidized all-cellulose microfiber films (OCMFs) containing a densely packed microscale fiber network structure simultaneously achieve high light transmittance (≈85.1%), low haze (≈6%), and notably high wet strength (≈32.34 MPa), superior to those of typical cellulose nanofiber films with inherent high hydrophilicity. Moreover, the thickness of OCMF can be easily regulated via a self-adhesive lamination approach, overcoming the limited film thickness formed by vacuum filtration. Coupled with low-valuable waste raw materials, all-cellulose components, low-energy microscale fabrication, and high optical clarity and water resistance, the proposed OCMF proves its bright future as ecofriendly alternative bioplastics in sustainable materials.

研究领域: 材料科学 · 环境科学 · 生物质工程
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