Derivatization of Lignin via Ternary Eutectic Solvent Systems for Enhanced Functionalities Hydrogel

This study presents a novel structural modification strategy for lignin, utilizing a ternary eutectic solvent system (TESS), which induces targeted derivatization. The resulting lignin-based functional hydrogel (LBFH), prepared via rational cross-linking of derivatized lignin precursors, exhibits exceptional hygroscopic properties, with a water swelling ratio of 934.0%. Water absorption kinetics were subjected to rigorous analysis through the employment of a dual-modeling strategy that incorporates Schott kinetics and Fickian diffusion mechanisms, thereby elucidating the synergistic dynamic processes underlying surface adsorption and matrix penetration. Remarkably, LBFH maintains 48.6% water retention capacity after 7 days atmospheric exposure (25 °C, 60% RH), demonstrating unprecedented environmental stability among biopolymer hydrogels. The engineered properties of LBFH suggest its potential application in sustainable agricultural practices as drought-resistant soil amendments, and in environmental remediation as contaminant-adsorptive matrices.

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Publication Details

Journal
Materials
Published
2025-11-23
DOI
https://doi.org/10.3390/ma18235283
Primary Topic
Lignin and Wood Chemistry
Type
article
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article

Derivatization of Lignin via Ternary Eutectic Solvent Systems for Enhanced Functionalities Hydrogel

Fengfeng Li, Tao Qin, Zhili Zhang, Xiuxin Yin
Materials
Lignin and Wood Chemistry
article

Derivatization of Lignin via Ternary Eutectic Solvent Systems for Enhanced Functionalities Hydrogel

Fengfeng Li, Tao Qin, Zhili Zhang, Xiuxin Yin
article en

Abstract

This study presents a novel structural modification strategy for lignin, utilizing a ternary eutectic solvent system (TESS), which induces targeted derivatization. The resulting lignin-based functional hydrogel (LBFH), prepared via rational cross-linking of derivatized lignin precursors, exhibits exceptional hygroscopic properties, with a water swelling ratio of 934.0%. Water absorption kinetics were subjected to rigorous analysis through the employment of a dual-modeling strategy that incorporates Schott kinetics and Fickian diffusion mechanisms, thereby elucidating the synergistic dynamic processes underlying surface adsorption and matrix penetration. Remarkably, LBFH maintains 48.6% water retention capacity after 7 days atmospheric exposure (25 °C, 60% RH), demonstrating unprecedented environmental stability among biopolymer hydrogels. The engineered properties of LBFH suggest its potential application in sustainable agricultural practices as drought-resistant soil amendments, and in environmental remediation as contaminant-adsorptive matrices.

MaterialsVol. 18(23)
Qilu University of Technology (CN), Nanjing Forestry University (CN), Shandong Academy of Sciences (CN)
Openalex Percentile: Top 65%
Lignin and Wood Chemistry
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