通过分子和遗传学研究揭示了硫代谢的途径和调控。

Thomas Leustek, Melinda N. Martin, Julie-Ann Bick, John P. Davies
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引用次数: 677

摘要

硫是生命所必需的。它的氧化态在全球硫循环中不断变化。植物在这个循环中起着关键作用,因为它们是有机硫化合物的主要生产者。它们能够将光合作用与硫酸盐的还原结合起来,同化成半胱氨酸,并进一步代谢成蛋氨酸、谷胱甘肽和许多其他化合物。硫同化途径的活性动态响应硫供应的变化和改变对还原硫需求的环境条件。分子遗传学分析使许多参与这一过程的酶和调控机制得以确定。本文就植物硫代谢研究的最新进展作一综述。它还强调了鲜为人知的领域,包括硫化合物的运输和回收/降解。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
PATHWAYS AND REGULATION OF SULFUR METABOLISM REVEALED THROUGH MOLECULAR AND GENETIC STUDIES.

Sulfur is essential for life. Its oxidation state is in constant flux as it circulates through the global sulfur cycle. Plants play a key role in the cycle since they are primary producers of organic sulfur compounds. They are able to couple photosynthesis to the reduction of sulfate, assimilation into cysteine, and further metabolism into methionine, glutathione, and many other compounds. The activity of the sulfur assimilation pathway responds dynamically to changes in sulfur supply and to environmental conditions that alter the need for reduced sulfur. Molecular genetic analysis has allowed many of the enzymes and regulatory mechanisms involved in the process to be defined. This review focuses on recent advances in the field of plant sulfur metabolism. It also emphasizes areas about which little is known, including transport and recycling/degradation of sulfur compounds.

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