Demonstrates high strength and transparency in cellulose membranes, highlighting sustainable material options.
Cellulose, owing to its abundance, renewability, and biocompatibility, has emerged as a promising candidate for high-performance and eco-friendly materials. Here, a simple method for preparing a regenerated cellulose membrane was developed by dissolving bamboo dissolving pulp (BDP) in ZnBr 2 hydrate molten salt followed by mixing with a small amount of DMSO and then regenerating from ethanol. The influence of different ZnBr 2 /H 2 O molar ratio, dissolution temperature, and time on the membrane properties was systematically investigated. When ZnBr 2 ·4H 2 O was used to dissolve BDP at 80 °C for 15 min, the dissolution performance was optimal, and the membrane 4-BDM 80-15 prepared exhibited the highest tensile strength of 107.92 MPa. Moreover, 4-BDM 80-15 showed a relatively smooth surface, higher optical transparency (91.2%), and lower water vapor permeability (2.64 × 10 −11 g·m −1 ∙s −1 ∙Pa −1 ). Compared with the commercial polypropylene membrane, 4-BDM 80-15 exhibited a much lower environmental impact, achieving nearly complete degradation within 35 days. Overall, this study established an effective strategy for the fabrication of high-performance regenerated cellulose membranes, which has significant application potential in the fields of sustainable materials and environmental remediation.
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Qiu et al. (2026) studied this question.
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