And the ribosomal intergenic sequence analysis(RISA) was used to show the changes of microbial community during the period.

并采用糖体基因间隔序列分析技术(RISA)解析了高效菌投加前后污的群落变化。

Several ribosomes may be actively engaged in protein synthesis along the same mRNA molecule, forming a polyribosome, or polysome.

几个糖体可能沿着同一个mRNA分子参与蛋白质的合成，形成了多聚糖体。

Furthermore, the impact of the P protein on ongoing translation of the C ORF was directly demonstrated by polysome distribution analysis.

而且，通过多糖体分布分析可以直接表明P蛋白对C ORF翻译的影响。

Once the connection between chloramphenicol and the procaryotic ribosome was discerned, it made sense that under certain conditions, chloramphenicol might inhibit eucaryotic cells.

抗生素和原性糖体的关被发现后，马上就识到在某种情况下，氯霉素也许能抑制真细胞。

And the dense proteinous particles synthesized by these free ribosomes could be accumulated and developed directly in ooplasm into yolk granules without membranes.

游离型糖体率先参与内源性卵黄合成形成无膜卵黄粒。

And the ribosomal intergenic sequence analysis(RISA) was used to show the changes of microbial community during the period.

并采用糖体基因间隔序列分(RISA)解了高效菌投加前后污泥系统的群落变化。

Several ribosomes may be actively engaged in protein synthesis along the same mRNA molecule, forming a polyribosome, or polysome.

几个糖体可沿着同一个mRNA分子参与蛋白质的合成，形成了多聚糖体。

Furthermore, the impact of the P protein on ongoing translation of the C ORF was directly demonstrated by polysome distribution analysis.

而且，通过多糖体分布分可以直接表明P蛋白对C ORF翻译的影响。

Once the connection between chloramphenicol and the procaryotic ribosome was discerned, it made sense that under certain conditions, chloramphenicol might inhibit eucaryotic cells.

抗生素和原性糖体的关系被发现后，马上就使人意识到在某种情况下，氯霉素抑制真细胞。

And the dense proteinous particles synthesized by these free ribosomes could be accumulated and developed directly in ooplasm into yolk granules without membranes.

游离型糖体率先参与内源性卵黄合成形成无膜卵黄粒。

And the ribosomal intergenic sequence analysis(RISA) was used to show the changes of microbial community during the period.

并采用糖体基因间隔序列分析技术(RISA)解析了高效菌投加前后污泥系统的群落变化。

Several ribosomes may be actively engaged in protein synthesis along the same mRNA molecule, forming a polyribosome, or polysome.

几个糖体可能沿着同一个mRNA分子参与蛋白质的合成，形成了多聚糖体。

Furthermore, the impact of the P protein on ongoing translation of the C ORF was directly demonstrated by polysome distribution analysis.

而且，通过多糖体分布分析可以直接表明P蛋白对C ORF翻译的影响。

Once the connection between chloramphenicol and the procaryotic ribosome was discerned, it made sense that under certain conditions, chloramphenicol might inhibit eucaryotic cells.

抗生素和原糖体的关系被发现后，马上就使人意识到在某种情况下，氯霉素也许能抑制真细胞。

And the dense proteinous particles synthesized by these free ribosomes could be accumulated and developed directly in ooplasm into yolk granules without membranes.

游离型糖体率先参与内源合成形成无膜粒。

And the ribosomal intergenic sequence analysis(RISA) was used to show the changes of microbial community during the period.

并采用糖体基因间隔序列分析技术(RISA)解析了高效菌投加前后统的群落变化。

Several ribosomes may be actively engaged in protein synthesis along the same mRNA molecule, forming a polyribosome, or polysome.

几个糖体可能沿着同一个mRNA分子参与蛋白质的合成，形成了多聚糖体。

Furthermore, the impact of the P protein on ongoing translation of the C ORF was directly demonstrated by polysome distribution analysis.

而且，通过多糖体分布分析可以直接表明P蛋白对C ORF翻译的影响。

Once the connection between chloramphenicol and the procaryotic ribosome was discerned, it made sense that under certain conditions, chloramphenicol might inhibit eucaryotic cells.

抗生素和原性糖体的关被发现后，马上就使到在某种情况下，氯霉素也许能抑制真细胞。

And the dense proteinous particles synthesized by these free ribosomes could be accumulated and developed directly in ooplasm into yolk granules without membranes.

游离型糖体率先参与内源性卵黄合成形成无膜卵黄粒。

And the ribosomal intergenic sequence analysis(RISA) was used to show the changes of microbial community during the period.

并采用糖体基因间隔序列分技术(RISA)解效菌投加前后污泥系统的群落变化。

Several ribosomes may be actively engaged in protein synthesis along the same mRNA molecule, forming a polyribosome, or polysome.

几个糖体可能沿着同一个mRNA分子参与蛋白质的合成，形成多聚糖体。

Furthermore, the impact of the P protein on ongoing translation of the C ORF was directly demonstrated by polysome distribution analysis.

而且，通过多糖体分布分可以直接表明P蛋白对C ORF翻译的影响。

Once the connection between chloramphenicol and the procaryotic ribosome was discerned, it made sense that under certain conditions, chloramphenicol might inhibit eucaryotic cells.

抗生素和原性糖体的关系被发现后，马上就使人意识到在某种情况，素也许能抑制真细胞。

And the dense proteinous particles synthesized by these free ribosomes could be accumulated and developed directly in ooplasm into yolk granules without membranes.

游离型糖体率先参与内源性卵黄合成形成无膜卵黄粒。

And the ribosomal intergenic sequence analysis(RISA) was used to show the changes of microbial community during the period.

并采用糖体基因间分析技术(RISA)解析了高效菌投加前后污泥系统的群落变化。

Several ribosomes may be actively engaged in protein synthesis along the same mRNA molecule, forming a polyribosome, or polysome.

几个糖体可能沿着同一个mRNA分子参与蛋白质的合成，形成了多聚糖体。

Furthermore, the impact of the P protein on ongoing translation of the C ORF was directly demonstrated by polysome distribution analysis.

而且，通过多糖体分布分析可以直接表明P蛋白对C ORF翻译的影响。

Once the connection between chloramphenicol and the procaryotic ribosome was discerned, it made sense that under certain conditions, chloramphenicol might inhibit eucaryotic cells.

抗生素和原性糖体的关系被发现后，马上就使人意识到在某种情况下，氯霉素也许能抑细胞。

And the dense proteinous particles synthesized by these free ribosomes could be accumulated and developed directly in ooplasm into yolk granules without membranes.

游离型糖体率先参与内源性卵黄合成形成无膜卵黄粒。

And the ribosomal intergenic sequence analysis(RISA) was used to show the changes of microbial community during the period.

并采用糖体基因间隔序列分析技术(RISA)解析了高效菌投加前后污泥系统群落变化。

Several ribosomes may be actively engaged in protein synthesis along the same mRNA molecule, forming a polyribosome, or polysome.

几个糖体可能沿着同一个mRNA分子参与蛋合成，形成了多聚糖体。

Furthermore, the impact of the P protein on ongoing translation of the C ORF was directly demonstrated by polysome distribution analysis.

而且，通过多糖体分布分析可以直接表明P蛋对C ORF影响。

Once the connection between chloramphenicol and the procaryotic ribosome was discerned, it made sense that under certain conditions, chloramphenicol might inhibit eucaryotic cells.

抗生素和原性糖体关系被发现后，马上就使人意识到在某种情况下，氯霉素也许能抑制真细胞。

And the dense proteinous particles synthesized by these free ribosomes could be accumulated and developed directly in ooplasm into yolk granules without membranes.

游离型糖体率先参与内源性卵黄合成形成无膜卵黄粒。

And the ribosomal intergenic sequence analysis(RISA) was used to show the changes of microbial community during the period.

并采用糖体基因间隔序列分析技术(RISA)解析了高效菌投加前后污泥系统的群落变化。

Several ribosomes may be actively engaged in protein synthesis along the same mRNA molecule, forming a polyribosome, or polysome.

几个糖体可能沿着同一个mRNA分子参与质的，了多聚糖体。

Furthermore, the impact of the P protein on ongoing translation of the C ORF was directly demonstrated by polysome distribution analysis.

而且，通过多糖体分布分析可以直接表明PC ORF翻译的影响。

Once the connection between chloramphenicol and the procaryotic ribosome was discerned, it made sense that under certain conditions, chloramphenicol might inhibit eucaryotic cells.

抗生素和原性糖体的关系被发现后，马上就使人意识到在某种情况下，氯霉素也许能抑制真细胞。

And the dense proteinous particles synthesized by these free ribosomes could be accumulated and developed directly in ooplasm into yolk granules without membranes.

游离型糖体率先参与内源性卵黄无膜卵黄粒。

And the ribosomal intergenic sequence analysis(RISA) was used to show the changes of microbial community during the period.

并采用糖体基因间隔序列分析技术(RISA)解析了高效菌投加前后污泥系统的群落变化。

Several ribosomes may be actively engaged in protein synthesis along the same mRNA molecule, forming a polyribosome, or polysome.

几个糖体可能沿着同一个mRNA分子参与蛋白质的合，了多聚糖体。

Furthermore, the impact of the P protein on ongoing translation of the C ORF was directly demonstrated by polysome distribution analysis.

而且，通过多糖体分布分析可以直接表明P蛋白对C ORF翻译的影响。

Once the connection between chloramphenicol and the procaryotic ribosome was discerned, it made sense that under certain conditions, chloramphenicol might inhibit eucaryotic cells.

抗生素和原性糖体的关系被发现后，马上就使人意识到在某种情况下，氯霉素也许能抑制真细胞。

And the dense proteinous particles synthesized by these free ribosomes could be accumulated and developed directly in ooplasm into yolk granules without membranes.

游离型糖体率先参与内源性卵黄合无膜卵黄粒。