The in vitro synthesis of cellulose – A mini-review
The implementation of cellulose as a green alternative to classical polymers sparks research on the synthesis of defined derivatives of this biopolymer for various high-tech applications. Apart from the scientific challenge, the in vitro synthesis of cellulose using a bottom-up approach provides spe...
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Veröffentlicht in: | Carbohydrate polymers 2022-06, Vol.285, p.119222-119222, Article 119222 |
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container_title | Carbohydrate polymers |
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creator | Lehrhofer, Anna F. Goto, Takaaki Kawada, Toshinari Rosenau, Thomas Hettegger, Hubert |
description | The implementation of cellulose as a green alternative to classical polymers sparks research on the synthesis of defined derivatives of this biopolymer for various high-tech applications. Apart from the scientific challenge, the in vitro synthesis of cellulose using a bottom-up approach provides specimens with absolutely accurate substituent patterns and degrees of polymerization, not accessible from native cellulose. Synthetic cellulose exhibiting a comparably high degree of polymerization (DP) was obtained starting from cellobiose by biocatalytic synthesis implementing cellulase. Cationic ring-opening polymerization has been established in the last two decades, representing an excellent means of precise modification with regards to regio- and stereoselective substitution. This method rendered isotopically enriched cellulose as well as enantiomers of native cellulose (“l-cellulose”, “d,l-cellulose”) accessible. In this review, techniques for in vitro cellulose synthesis are summarized and critically compared – with a special focus on more recent developments. This is complemented by a brief overview of alternative enzymatic approaches.
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doi_str_mv | 10.1016/j.carbpol.2022.119222 |
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subjects | Anhydroglucose Biopolymer Cellobiose Cellulase Cellulose In vitro synthesis Polymers Polysaccharide Ring-opening polymerization Stereoisomerism |
title | The in vitro synthesis of cellulose – A mini-review |
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