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与光捕获复合物 I 相关的特定取代可与质体 NADH 脱氢酶样复合物形成超级复合物。

Specific substitutions of light-harvesting complex I proteins associated with photosystem I are required for supercomplex formation with chloroplast NADH dehydrogenase-like complex.

机构信息

Department of Botany, Graduate School of Science, Kyoto University, Kyoto, 606-8502, Japan.

出版信息

Plant J. 2018 Apr;94(1):122-130. doi: 10.1111/tpj.13846. Epub 2018 Mar 9.

DOI:10.1111/tpj.13846
PMID:29385648
Abstract

In Arabidopsis, the chloroplast NADH-dehydrogenase-like (NDH) complex is sandwiched between two copies of photosystem I (PSI) supercomplex, consisting of a PSI core and four light-harvesting complex I (LHCI) proteins (PSI-LHCI) to form the NDH-PSI supercomplex. Two minor LHCI proteins, Lhca5 and Lhca6, contribute to the interaction of each PSI-LHCI copy with the NDH complex. Here, large-pore blue-native gel electrophoresis revealed that, in addition to this complex, there were at least two types of higher-order association of more LHCI copies with the NDH complex. In single-particle images, this higher-order association of PSI-LHCI preferentially occurs at the left side of the NDH complex when viewed from the stromal side, placing subcomplex A at the top (Yadav et al., Biochim. Biophys. Acta - Bioenerg., 1858, 2017, 12). The association was impaired in the lhca6 mutant but not in the lhca5 mutant, suggesting that the left copy of PSI-LHCI was linked to the NDH complex via Lhca6. From an analysis of subunit compositions of the NDH-PSI supercomplex in lhca5 and lhca6 mutants, we propose that Lhca6 substitutes for Lhca2 in the left copy of PSI-LHCI, whereas Lhca5 substitutes for Lhca4 in the right copy. In the lhca2 mutant, Lhca3 was specifically stabilized in the NDH-PSI supercomplex through heterodimer formation with Lhca6. In the left copy of PSI-LHCI, subcomplex B, Lhca6 and NdhD likely formed the core of the supercomplex interaction. In contrast, a larger protein complex, including at least subcomplexes B and L and NdhB, was needed to form the contact site with Lhca5 in the right copy of PSI-LHCI.

摘要

在拟南芥中,叶绿体 NADH 脱氢酶样(NDH)复合物夹在两个光系统 I(PSI)超复合物之间,由 PSI 核心和四个光捕获复合物 I(LHCI)蛋白(PSI-LHCI)组成,形成 NDH-PSI 超复合物。两个较小的 LHCI 蛋白 Lhca5 和 Lhca6 有助于每个 PSI-LHCI 拷贝与 NDH 复合物的相互作用。在这里,大孔蓝色非变性凝胶电泳显示,除了这种复合物之外,还有至少两种类型的更多 LHCI 拷贝与 NDH 复合物的高级别关联。在单颗粒图像中,从基质侧观察时,这种 PSI-LHCI 的高级别关联优先发生在 NDH 复合物的左侧,将亚复合物 A 置于顶部(Yadav 等人,生物化学。生物物理学学报-生物能学,1858,2017)。在 lhca6 突变体中,这种关联受到损害,但在 lhca5 突变体中没有,这表明 PSI-LHCI 的左侧拷贝通过 Lhca6 与 NDH 复合物相连。从 lhca5 和 lhca6 突变体中 NDH-PSI 超复合物的亚基组成分析中,我们提出 Lhca6 取代 PSI-LHCI 的左侧拷贝中的 Lhca2,而 Lhca5 取代右侧拷贝中的 Lhca4。在 lhca2 突变体中,Lhca3 通过与 Lhca6 形成异二聚体而特异性稳定在 NDH-PSI 超复合物中。在 PSI-LHCI 的左侧拷贝中,亚复合物 B、Lhca6 和 NdhD 可能形成了超复合物相互作用的核心。相比之下,在 PSI-LHCI 的右侧拷贝中,需要形成一个更大的蛋白质复合物,包括至少亚复合物 B 和 L 以及 NdhB,以与 Lhca5 形成接触位点。

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