Author
Listed:
- Ning Li
(Chinese Academy of Sciences
Liaoning Key Laboratory of Biomass Conversion for Energy and Material
Stockholm University)
- Kexin Yan
(Chinese Academy of Sciences
University of Chinese Academy of Sciences)
- Thanya Rukkijakan
(Stockholm University)
- Jiefeng Liang
(Chinese Academy of Sciences
Shandong University)
- Yuting Liu
(Chinese Academy of Sciences)
- Zhipeng Wang
(Chinese Academy of Sciences)
- Heran Nie
(Chinese Academy of Sciences)
- Suthawan Muangmeesri
(Stockholm University)
- Gonzalo Castiella-Ona
(Stockholm University)
- Xuejun Pan
(University of Wisconsin-Madison)
- Qunfang Zhou
(Chinese Academy of Sciences)
- Guibin Jiang
(Chinese Academy of Sciences)
- Guangyuan Zhou
(Chinese Academy of Sciences)
- John Ralph
(University of Wisconsin-Madison
University of Wisconsin-Madison)
- Joseph S. M. Samec
(Stockholm University)
- Feng Wang
(Chinese Academy of Sciences
Liaoning Key Laboratory of Biomass Conversion for Energy and Material
University of Chinese Academy of Sciences)
Abstract
Lignocellulose is mainly composed of hydrophobic lignin and hydrophilic polysaccharide polymers, contributing to an indispensable carbon resource for green biorefineries1,2. When chemically treated, lignin is compromised owing to detrimental intra- and intermolecular crosslinking that hampers downstream process3,4. The current valorization paradigms aim to avoid the formation of new C–C bonds, referred to as condensation, by blocking or stabilizing the vulnerable moieties of lignin5–7. Although there have been efforts to enhance biomass utilization through the incorporation of phenolic additives8,9, exploiting lignin’s proclivity towards condensation remains unproven for valorizing both lignin and carbohydrates to high-value products. Here we leverage the proclivity by directing the C–C bond formation in a catalytic arylation pathway using lignin-derived phenols with high nucleophilicity. The selectively condensed lignin, isolated in near-quantitative yields while preserving its prominent cleavable β-ether units, can be unlocked in a tandem catalytic process involving aryl migration and transfer hydrogenation. Lignin in wood is thereby converted to benign bisphenols (34–48 wt%) that represent performance-advantaged replacements for their fossil-based counterparts. Delignified pulp from cellulose and xylose from xylan are co-produced for textile fibres and renewable chemicals. This condensation-driven strategy represents a key advancement complementary to other promising monophenol-oriented approaches targeting valuable platform chemicals and materials, thereby contributing to holistic biomass valorization.
Suggested Citation
Ning Li & Kexin Yan & Thanya Rukkijakan & Jiefeng Liang & Yuting Liu & Zhipeng Wang & Heran Nie & Suthawan Muangmeesri & Gonzalo Castiella-Ona & Xuejun Pan & Qunfang Zhou & Guibin Jiang & Guangyuan Zh, 2024.
"Selective lignin arylation for biomass fractionation and benign bisphenols,"
Nature, Nature, vol. 630(8016), pages 381-386, June.
Handle:
RePEc:nat:nature:v:630:y:2024:i:8016:d:10.1038_s41586-024-07446-5
DOI: 10.1038/s41586-024-07446-5
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