Efficient Recycling of Glucose from Cellulose in Textiles Waste by Solid Catalysts

The efficient conversion of cellulose into glucose is critical for advancing sustainable biofuels and bioproducts. Traditional methods face significant challenges, including inefficiencies and environmental concerns, highlighting the need for innovative catalytic systems. In this study, we successfully synthesized three hydroxyl-rich carbon-based solid acid catalysts─S-catalyzer, P-catalyzer, and C-catalyze. Utilizing an aqueous hydrothermal system, the S-catalyzer, characterized by high hydroxyl content and -SO<sub>3</sub>H groups, effectively mimicked cellulase activity, breaking glycosidic bonds and achieving a glucose yield of 68% with a cellulose conversion rate of 97.2% within 120 min. The catalysts also demonstrated remarkable recyclability, maintaining over 90% conversion efficiency across multiple cycles. This stability is attributed to the robustness of hydroxyl and -SO<sub>3</sub>H groups and the recycling of glucose as a carbonation substrate in a closed-loop system. Our findings provide a novel, environmentally sustainable method for cellulose hydrolysis, offering significant potential for scalable biofuel production and broader biotechnological applications.

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Publication Details

Journal
Biomacromolecules
Published
2024-12-03
DOI
https://doi.org/10.1021/acs.biomac.4c01382
Citations
7
Primary Topic
Catalysis for Biomass Conversion
Type
article
Field-Weighted Citation Impact
1.29

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article

Efficient Recycling of Glucose from Cellulose in Textiles Waste by Solid Catalysts

Zihui Liang, Changhai Yi, Fan Bu, Hongzhi Hu et al.
7 citations
Biomacromolecules
Catalysis for Biomass Conversion
1.29
article

Efficient Recycling of Glucose from Cellulose in Textiles Waste by Solid Catalysts

Zihui Liang, Changhai Yi, Fan Bu, Hongzhi Hu, Qiangqiang Cui, Jing Li, Chao Chen, Xiaohong Liao, Jing Yu, Cheng Zeng
article en
7 citations

Abstract

The efficient conversion of cellulose into glucose is critical for advancing sustainable biofuels and bioproducts. Traditional methods face significant challenges, including inefficiencies and environmental concerns, highlighting the need for innovative catalytic systems. In this study, we successfully synthesized three hydroxyl-rich carbon-based solid acid catalysts─S-catalyzer, P-catalyzer, and C-catalyze. Utilizing an aqueous hydrothermal system, the S-catalyzer, characterized by high hydroxyl content and -SO<sub>3</sub>H groups, effectively mimicked cellulase activity, breaking glycosidic bonds and achieving a glucose yield of 68% with a cellulose conversion rate of 97.2% within 120 min. The catalysts also demonstrated remarkable recyclability, maintaining over 90% conversion efficiency across multiple cycles. This stability is attributed to the robustness of hydroxyl and -SO<sub>3</sub>H groups and the recycling of glucose as a carbonation substrate in a closed-loop system. Our findings provide a novel, environmentally sustainable method for cellulose hydrolysis, offering significant potential for scalable biofuel production and broader biotechnological applications.

BiomacromoleculesVol. 26(1)
Union Hospital (HK), Zhejiang Police College (CN), Wuhan Textile University (CN), Huazhong University of Science and Technology (CN)
National Natural Science Foundation of China, Natural Science Foundation of Hubei Province
Openalex Percentile: Top 21%
Catalysis for Biomass Conversion
1.29
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