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1·Thylakoid lumen acidification induces high energy state quenching.

类囊体腔的酸化可诱导高能态的猝灭。

2·Analysis of thylakoid membranes will benefit the study of photosynthetic mechanism.

叶绿体类囊体膜的深入研究可以促进光合作用的分子机理研究。

3·Diuron (DCMU) blocks the electron transporting from QA to QB in the thylakoid membrane.

敌草隆(DCMU)阻断植物光合器官类囊体膜上的电子从QA到QB的传递。

4·There were not obvious differences on the polypeptide compositions of thylakoid membrane.

但类囊体膜的多肽组分并不存在明显的差异。

5·The early green fruit was characterized by chloroplasts with a typical grana intergranal thylakoid structure.

早期绿色果实的特点是叶绿体具典型的基粒-基粒间类囊体结构。

6·The polypeptide compositions of thylakoid membrane were different not in some composition but in some content.

两优培九的类囊体膜并不是某些多肽组分存在差异，而是含量差异。

7·In addition, the number of thylakoid membranes in these mutants decreased and their chloroplasts were smaller.

此外，在这些突变体中，类囊体膜的数量也有所降低，它们的叶绿体亦相对较小。

8·There were little report on the effect of enhanced UV-B radiation on the chlorophyll-protein complexes on the thylakoid membrane.

增强UV - B辐射对类囊体膜上色素蛋白复合体含量的影响还未见报道。

9·It was persumed that the protein FDR3 and FDR4 might be the components in the protein transport channel on the thylakoid membrane.

猜测FDR3蛋白和FDR4蛋白可能是类囊体膜上的蛋白转运通道中的元件。

10·Changes in chloroplast electron transport activity and the levels of thylakoid membrane proteins of rice leaves Oryza sativa L. var.

研究了低温胁迫下水稻幼苗叶绿体光合电子传递功能及类囊体膜蛋白水平的变化。

类囊体

1·Besides, chlorophyll content, soluble protein, thylakoid membrane lipids fatty acid instauration and activity of Violaxanthin de-epoxidase(VDE)were all decreased with the progress of senescence.

叶绿素，可溶性蛋白，类囊体膜脂脂肪酸不饱和度和紫黄质脱环氧化酶（VDE）蛋白量在衰老过程中逐渐下降。

2·At yellow green fruit stage the thylakoid system was disintegrated and replaced by few non chlorophyllous single thylakoids, with accumulation of large osmiophilic plastoglobules.

在黄绿色果实时期叶绿体类囊体系统解体，代之以少数非叶绿素的单个类囊体和积累大的嗜锇的质体小球。

3·The consequences of these findings for the mechanism and regulation of xanthophyll conversion in the thylakoid membrane will be discussed.

的后果，这些研究结果的机制和规范的转换中的叶黄素类囊体膜，将讨论。