There had some stroma lamella in chloroplast.

叶绿体中有一些基质片层。

Cell chloroplast density and higher granum lamellae decreased as well. 

叶绿体高基粒片层逐渐减小。

This is the chloroplast.

这是叶绿体。

This picture shows the chloroplast structure.

这幅图画的是叶绿体的结构。

In C4 plants there are two types of chloroplast.

在C4植物中有两种类型的叶绿体。

Transport to the chloroplast involves a similar process.

运输到叶绿体涉及一个类似的过程。

The chloroplast envelope has the light yellow color of violaxanthin.

叶绿体的套膜有紫黄质的淡黄色。

SOD, POD, CAT activity changes and changes in chloroplast ultrastructure.

POD、CAT活性变化以及叶绿体超微结构的变化。

Our group is interested in G-protein signaling and chloroplast development.

我们组的研究兴趣主要集中在G -蛋白信号转导和叶绿体发育。

Chloroplast genetic transformation is a new way of plant genetic engineering.

叶绿体遗传转化是植物基因工程的新方向。

Water stress can significantly affect root, leaf and chloroplast ultra-structure.

水分胁迫能显著影响柑橘叶片、根系细胞与叶绿体超微结构。

A brief review of chloroplast structure is useful before discussing these experiments.

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。

Normal chloroplasts are indicated by white arrow, while abnormal chloroplast by blue arrow.

白色箭头指示正常叶绿体，蓝色箭头指示异常叶绿体。

The structure of chloroplast was integrity, osmiophilic granule was dispersing in plastids.

叶绿体等细胞器结构完整，嗜锇颗粒分散在质体中。

CP43 and CP47, the core antenna of PSII, were isolated and purified from spinach chloroplast.

从菠菜叶绿体中分离纯化出PSII内周天线CP43及CP47色素蛋白复合物。

The outer of the two membranes around a chloroplast could be regarded as the host exclusion membranes.

围着叶绿体的外面两层膜，可以看作寄主排斥的膜。

The chloroplast RNA were extracted from the chloroplasts with a mixture of extracting buffer and phenol.

将叶绿体与提取缓冲液、苯酚混合匀浆抽提叶绿体RNA。

The main pigments absorbing the light energy are chlorophyll and carotenoid in chloroplast of plant leaves.

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。

Inside the chloroplast is a fluid called stroma, which contains a series of flattened stacks of thylakoids.

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。

Our results suggested that PPF1 gene might regulate plant development by controlling chloroplast development.

我们的结果提示P PF 1基因可能通过控制叶绿体的发育状况来调节植物的发育。

Drought stress and the strong light stress haa significant effects on chloroplast membrane protein expression.

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。

Chlorophyll content was 1.2 SPAD, and the chloroplast did not develop, with only small vesicle-like structures.

结果发现叶绿素平均含量仅为1.2（SPAD），而叶绿体也不能正常发育仅有囊泡状结构。

This will save energy and absorb CO2 as the bio-LED luminescence will cause the chloroplast to conduct photosynthesis.

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。

The percentage of intact chloroplasts in the chloroplast preparations isolated by this method is usually over 80%.

在使用这种方法获得的叶绿体制剂中，完整叶绿体的百分数通常超过80％。

The results indicated that albescent seedlings were caused by the variation of base in the sequence of chloroplast DNA.

说明矮牵牛的白化的确可能是由于叶绿体DNA水平上的碱基变化所引起的。

There were clearly difference of the anatomical structures and the ultrastructural of chloroplast of leaves in different types.

不同类型苦丁茶叶片解剖结构和叶绿体超微结构间有明显差异。

This paper will summarize the Endosymbiontic Hypothesis and the Intercellular origin Hypothesis of chloroplast and mitochondrion.

本文主要综述了线粒体、叶绿体的内共生假说和分化假说。

Chloroplast is an organelle specialized for carrying out photosynthesis in plants and descended from cyanobacteria according to endosymbiosis.

叶绿体是植物进行光合作用的细胞器，“内共生学说”认为叶绿体起源于蓝藻类的原核生物。

The rice(Oryza sativa) chloroplast multicistron site integration expression vector will be transformed for expression into the tobacco chloroplast.

目的尝试水稻质体多顺反子定点整合表达载体转化到烟草质体中表达。