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MTMS-modified cellulose cryogels derived from licorice (Glycyrrhiza uralensis Fisch.) Residue: Biomass materials fabrication and oil adsorption potentialopen access

Authors
Baek, DohakYoon, SohyunChoi, HansolLim, SoheeByeon, JihuiKim, Dae-young
Issue Date
Nov-2025
Publisher
Elsevier B.V.
Keywords
Cellulose; Cryogel; Licorice Residue; Mtms Chemical Vapor Deposition; Oil Adsorption; Silanization; Adsorbents; Adsorption; Cellulose Derivatives; Chemical Modification; Chemical Vapor Deposition; Hydrophobicity; Pore Size; Surface Treatment; Wastewater Treatment; Biomass Materials; Chemical Vapour Deposition; Cryogels; Glycyrrhiza Uralensis Fisch; Licorice Residue; Methyltrimethoxysilane; Methyltrimethoxysilane Chemical Vapor Deposition; Modified Cellulose; Oil Adsorption; Silanizations; Cellulose
Citation
Industrial Crops and Products, v.235, pp 1 - 9
Pages
9
Indexed
SCIE
SCOPUS
Journal Title
Industrial Crops and Products
Volume
235
Start Page
1
End Page
9
URI
https://scholarworks.dongguk.edu/handle/sw.dongguk/61590
DOI
10.1016/j.indcrop.2025.121838
ISSN
0926-6690
1872-633X
Abstract
A sustainable oil-adsorbing cryogel based on Licorice (Glycyrrhiza uralensis Fisch.) residues (LR) has been proposed. Due to their high cellulose content, licorice residues offer a valuable renewable resource for fabricating effective porous adsorbents. Cellulose was dissolved and regenerated from LR to form cryogels, which were then modified via chemical vapor deposition (CVD) using methyltrimethoxysilane (MTMS). Silanol groups were successfully incorporated into the cryogel structure, and MTMS treatment established a siloxane network characterized by Si–O–Si and Si–CH₃ bonds, enhancing the material's hydrophobicity. The resulting cryogels exhibited mesoporous structures, with BET analysis revealing a gradual decrease in specific surface area and a non-linear change in pore volume and pore size depending on MTMS deposition time. Excessive deposition led to partial pore collapse and reduced accessibility due to silanol condensation within the cellulose matrix. Among all samples, the cryogel treated for 16 h exhibited the most favorable balance between porosity and surface modification, achieving the highest oil adsorption capacity of 13.21–13.31 g·g⁻¹ . These findings suggest that LR-based cryogels, when optimized for hydrophobic modification, can serve as low-cost, eco-friendly adsorbents for oil spill recovery and wastewater treatment applications. © 2025 Elsevier B.V., All rights reserved.
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