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海拔和光照环境对常绿植物熊果中PsbS及相关蛋白冬季驯化的影响

Winter acclimation of PsbS and related proteins in the evergreen Arctostaphylos uva-ursi as influenced by altitude and light environment.

作者信息

Zarter C Ryan, Adams William W, Ebbert Volker, Adamska Iwona, Jansson Stefan, Demmig-Adams Barbara

机构信息

Department of Ecology & Evolutionary Biology, University of Colorado, Boulder, CO 80309-0334, USA.

出版信息

Plant Cell Environ. 2006 May;29(5):869-78. doi: 10.1111/j.1365-3040.2005.01466.x.

DOI:10.1111/j.1365-3040.2005.01466.x
PMID:17087470
Abstract

The evergreen groundcover bearberry (Arctostaphylos uva-ursi [L.] Sprengel) was characterized over two successive years (2002-2004) from both sun-exposed and shaded sites at a montane ponderosa pine and subalpine forest community of 1900- and 2800-m-high altitudes, respectively. During summer, photosynthetic capacities and pre-dawn photosystem II (PSII) efficiency were similarly high in all four populations, and in winter, only the sun-exposed and shaded populations at 2800 m exhibited complete down-regulation of photosynthetic oxygen evolution capacity and consistent sustained down-regulation of PSII efficiency. This photosynthetic down-regulation at high altitude involved a substantial decrease in PSII components [pheophytin, D1 protein, oxygen evolving complex ([OEC)], a strong up-regulation of several anti-early-light-inducible protein (Elip)- and anti-high-light-inducible protein (Hlip)-reactive bands and a warm-sustained retention of zeaxanthin and antheraxanthin (Z + A). PsbS, the protein modulating the rapid engagement and disengagement of Z +A in energy dissipation, exhibited its most pronounced winter increases in the shade at 1900 m, and thus apparently assumes a greater role in providing rapidly reversible zeaxanthin-dependent photoprotection during winter when light becomes excessive in the shaded population, which remains photosynthetically active. It is attractive to hypothesize that PsbS relatives (Elips/Hlips) may be involved in sustained zeaxanthin-dependent photoprotection under the more extreme winter conditions at 2800 m.

摘要

常绿地被植物熊果(Arctostaphylos uva - ursi [L.] Sprengel)在连续两年(2002 - 2004年)进行了特征描述,研究地点分别为海拔1900米的山地黄松群落和海拔2800米的亚高山森林群落中阳光照射和遮荫的区域。夏季,所有四个种群的光合能力和黎明前光系统II(PSII)效率都同样高;冬季,只有海拔2800米处阳光照射和遮荫的种群表现出光合放氧能力完全下调以及PSII效率持续稳定下调。高海拔地区的这种光合下调涉及PSII组分[脱镁叶绿素、D1蛋白、放氧复合体([OEC])]大幅减少,几种抗早期光诱导蛋白(Elip)和抗高光诱导蛋白(Hlip)反应条带强烈上调,以及玉米黄质和花药黄质(Z + A)的温暖条件下持续保留。PsbS蛋白调节Z + A在能量耗散中的快速结合和解离,在海拔1900米的遮荫环境中冬季增加最为明显,因此在冬季光照对遮荫种群变得过强时,显然在提供快速可逆的玉米黄质依赖性光保护方面发挥了更大作用,而该遮荫种群仍保持光合活性。有一种颇具吸引力的假设认为,在海拔2800米更为极端的冬季条件下,PsbS的相关蛋白(Elips/Hlips)可能参与了持续的玉米黄质依赖性光保护。

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