CELLULOSE BIOSYNTHESIS: Exciting Times for A Difficult Field of Study.

Deborah P. Delmer
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引用次数: 640

Abstract

The past few decades have witnessed exciting progress in studies on the biosynthesis of cellulose. In the bacterium Acetobacter xylinum, discovery of the activator of the cellulose synthase, cyclic diguanylic acid, opened the way for obtaining high rates of in vitro synthesis of cellulose. This, in turn, led to purification of the cellulose synthase and for the cloning of genes that encode the catalytic subunit and other proteins that bind the activator and regulate its synthesis and degradation, or that control secretion and crystallization of the microfibrils. In higher plants, a family of genes has been discovered that show interesting similarities and differences from the gene in bacteria that encodes the catalytic subunit of the synthase. Genetic evidence now supports the concept that members of this family encode the catalytic subunit in these organisms, with various members showing tissue-specific expression. Although the cellulose synthase has not yet been purified to homogeneity from plants, recent progress in this area suggests that this will soon be accomplished.

纤维素生物合成:一个困难研究领域的激动人心的时代。
在过去的几十年里,纤维素的生物合成研究取得了令人兴奋的进展。在木醋杆菌中,纤维素合酶活化剂环二胍酸的发现,为体外获得高速率的纤维素合成开辟了道路。这反过来又导致了纤维素合酶的纯化,以及编码催化亚基和其他结合激活剂并调节其合成和降解或控制微原纤维分泌和结晶的蛋白质的基因的克隆。在高等植物中,已经发现了一个基因家族,它与细菌中编码合成酶催化亚基的基因有有趣的异同。遗传证据现在支持这个概念,即这个家族的成员在这些生物体中编码催化亚基,不同的成员表现出组织特异性表达。虽然纤维素合酶尚未从植物中纯化到同质性,但该领域的最新进展表明这将很快实现。
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