叶绿体中有一些基质片层。
叶绿体高基粒片层逐渐减小。
Cell chloroplast density and higher granum lamellae decreased as well.
上图是苔藓细胞中的叶绿体。
这些被俘获的细菌被称为叶绿体。
在C4植物中有两种类型的叶绿体。
叶肉不分化，细胞不含叶绿体。
这种转化方式进化为植物中的叶绿体。
然而，他们不转交这些叶绿体下一代。
However, they do not transfer these chloroplasts to the next generations.
线粒体和叶绿体是网站的独特的细胞过程。
Mitochondrias and chloroplasts are the sites for unique cellular processes.
同时，叶绿体发生了形态和结构上的改变。
Meanwhile, pathological changes of diseased chloroplasts' morphology and structure took place.
甚至可能辨认出如细胞核、线粒体、叶绿体等细胞结构。
It's even possible to make out structures within the cell, such as the nucleus, mitochondria and chloroplasts.
束鞘细胞的叶绿体和叶肉细胞的叶绿体都含有许多基粒。
The chloroplasts of both the mesophyll and the bundle sheath cells contain many grana.
干旱胁迫和强光胁迫对叶绿体膜蛋白表达具有显著的影响。
Drought stress and the strong light stress haa significant effects on chloroplast membrane protein expression.
本文主要综述了线粒体、叶绿体的内共生假说和分化假说。
This paper will summarize the Endosymbiontic Hypothesis and the Intercellular origin Hypothesis of chloroplast and mitochondrion.
将叶绿体与提取缓冲液、苯酚混合匀浆抽提叶绿体RNA。
The chloroplast RNA were extracted from the chloroplasts with a mixture of extracting buffer and phenol.
它同样可使木质素和角质被染为红色，而将叶绿体染为粉色。
通常，植物是靠一种叫做叶绿体的纤小细胞器完成光合作用的。
Usually, plants perform photosynthesis by way of tiny organelles called plastids.
在讨论这些试验以前，对叶绿体结构作一简短的概述是有益的。
A brief review of chloroplast structure is useful before discussing these experiments.
海藻的大部分被这种海蛤蝓消化，但是叶绿体保持完整不被消化。
The slugs digest most of the algae, but those plastids remain whole and undigested.
透明细胞：指不含叶绿体，用于储存水分或溶质的所有叶细胞。
Hyaline cells Any leaf cell with no chlorophyll that is normally used for storage of water or solutes.
在植物叶片的叶绿体中的俘光色素主要有叶绿素和类胡萝卜素。
The main pigments absorbing the light energy are chlorophyll and carotenoid in chloroplast of plant leaves.
前质体能分化成各具特点的细胞器，如淀粉体，叶绿体和有色体。
The proplastids differentiate to form characteristic organelles such as amyloplasts, chloroplasts and chromoplasts.
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。
The early green fruit was characterized by chloroplasts with a typical grana intergranal thylakoid structure.
叶绿体里面是一种叫基质的液体，它含有一系列扁平的成堆的类囊体。
Inside the chloroplast is a fluid called stroma, which contains a series of flattened stacks of thylakoids.
它不仅节能而且可以吸收CO2，同时生物led发光可导致叶绿体进行光合作用。
This will save energy and absorb CO2 as the bio-LED luminescence will cause the chloroplast to conduct photosynthesis.
叶绿体是植物进行光合作用的场所，能有效将太阳的光能量转化成化学能。
Chloroplasts are plant photosynthesis, place, can effectively will be the light of the sun energy into chemical energy.
叶绿体和线粒体都是比较大的实体，它们被一层膜包着，象细胞本身一样。
Chloroplasts and mitochondria are both relatively large bodies, surrounded by membranes, as is the cell itself.
结果表明，绿色植物叶绿体的活性高于彩叶植物，其活性的稳定性也更高。
The consequence showed that chloroplasts of green plants are more active than of colored ones, so are their stability.
结果表明，绿色植物叶绿体的活性高于彩叶植物，其活性的稳定性也更高。
The consequence showed that chloroplasts of green plants are more active than of colored ones, so are their stability.
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