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In Situ Synthesis of Plasticized Bacterial Cellulose Films for Daily Packaging Using Biobased Plasticizers

ACS Applied Materials & Interfaces 2025 4 citations ? Citation count from OpenAlex, updated daily. May differ slightly from the publisher's own count. Score: 48 ? 0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Yihai Yan, Yibing Zhang, Yihai Yan, Haibo Zhang Haibo Zhang Guoqiang Chen, Haibo Zhang Yibing Zhang, Wenxue Dai, Wenxue Dai, Shuaijun Deng, Shuaijun Deng, Shagufta Afreen, Haibo Zhang Lei Wang, Haibo Zhang Haibo Zhang, Haibo Zhang Haibo Zhang, Haibo Zhang, Haibo Zhang

Summary

Researchers synthesized plasticized bacterial cellulose films in situ and characterized their mechanical, optical, and barrier properties for daily packaging applications, finding the bio-based materials offered competitive performance with lower environmental impact than petroleum-based alternatives.

Bacterial cellulose (BC) naturally decomposes in the environment without releasing toxins or microplastics, making it a promising alternative to conventional plastics. However, its inherent brittleness after drying limits its broader application. This study investigates four biobased plasticizers─epoxy soybean oil, castor oil, tributyl citrate (TBC), and tributyl trans-aconitate (TBA)─to enhance the flexibility of BC through in situ modification. By combining a gel-assisted biosynthesis with an in situ spray plasticization method, biobased plasticizers are uniformly incorporated into the nanofiber network of BC, resulting in films with significantly improved flexibility and transparency. Among the biobased plasticizers, TBC and TBA showed the most effective plasticization, increasing the <i>E</i>% to 9.63 and 11.90%, respectively, corresponding to 6.3-fold and 7.5-fold enhancements compared to the control. This approach not only improves the mechanical properties of BC but also streamlines production by enabling a simplified processing method. The findings underscore the potential of plasticized BC biomaterials in replacing fossil-based plastics and advancing the development of sustainable materials.

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