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杂种四 CBS 结构域 KINβγ 亚基作为植物能量感受器 SnRK1 的典型 γ 亚基发挥作用。

The hybrid four-CBS-domain KINβγ subunit functions as the canonical γ subunit of the plant energy sensor SnRK1.

机构信息

KU Leuven Department of Biology, Laboratory of Molecular Plant Biology, Leuven, B-3001, Belgium.

Department of Molecular Biology and Center for Computational and Integrative Biology, Massachusetts General Hospital, Boston, MA, 02114, USA.

出版信息

Plant J. 2013 Jul;75(1):11-25. doi: 10.1111/tpj.12192. Epub 2013 May 15.

DOI:10.1111/tpj.12192
PMID:23551663
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC6599549/
Abstract

The AMPK/SNF1/SnRK1 protein kinases are a family of ancient and highly conserved eukaryotic energy sensors that function as heterotrimeric complexes. These typically comprise catalytic α subunits and regulatory β and γ subunits, the latter function as the energy-sensing modules of animal AMPK through adenosine nucleotide binding. The ability to monitor accurately and adapt to changing environmental conditions and energy supply is essential for optimal plant growth and survival, but mechanistic insight in the plant SnRK1 function is still limited. In addition to a family of γ-like proteins, plants also encode a hybrid βγ protein that combines the Four-Cystathionine β-synthase (CBS)-domain (FCD) structure in γ subunits with a glycogen-binding domain (GBD), typically found in β subunits. We used integrated functional analyses by ectopic SnRK1 complex reconstitution, yeast mutant complementation, in-depth phylogenetic reconstruction, and a seedling starvation assay to show that only the hybrid KINβγ protein that recruited the GBD around the emergence of the green chloroplast-containing plants, acts as the canonical γ subunit required for heterotrimeric complex formation. Mutagenesis and truncation analysis further show that complex interaction in plant cells and γ subunit function in yeast depend on both a highly conserved FCD and a pre-CBS domain, but not the GBD. In addition to novel insight into canonical AMPK/SNF/SnRK1 γ subunit function, regulation and evolution, we provide a new classification of plant FCD genes as a convenient and reliable tool to predict regulatory partners for the SnRK1 energy sensor and novel FCD gene functions.

摘要

AMPK/SNF1/SnRK1 蛋白激酶家族是一类古老且高度保守的真核能量传感器,作为异源三聚体复合物发挥作用。这些复合物通常由催化α亚基和调节β和γ亚基组成,后者通过腺苷核苷酸结合作为动物 AMPK 的能量感应模块发挥作用。准确监测和适应不断变化的环境条件和能量供应的能力对于植物的最佳生长和生存至关重要,但植物 SnRK1 功能的机制见解仍然有限。除了一类γ样蛋白外,植物还编码一种混合的βγ蛋白,它将γ亚基中的四半胱氨酸β-合酶(CBS)结构域(FCD)与糖原结合结构域(GBD)结合在一起,通常在β亚基中发现。我们通过异位 SnRK1 复合物重建、酵母突变体互补、深入的系统发育重建和幼苗饥饿测定进行综合功能分析,表明只有招募 GBD 的杂种 KINβγ 蛋白,在含有绿色叶绿体的植物出现后,才作为形成异源三聚体复合物所需的典型γ亚基发挥作用。突变和截短分析进一步表明,植物细胞中复合物的相互作用和酵母中γ亚基的功能既依赖于高度保守的 FCD 和前 CBS 结构域,也依赖于 GBD。除了对经典 AMPK/SNF/SnRK1 γ 亚基功能、调节和进化的新见解外,我们还提供了一种新的植物 FCD 基因分类方法,作为预测 SnRK1 能量传感器的调节伙伴和新型 FCD 基因功能的便捷可靠工具。

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