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New insights into Chlamydomonas reinhardtii hydrogen production processes by combined microarray/RNA?¢????seq transcriptomics

机译:结合芯片/ RNA序列转录组学对莱茵衣藻制氢过程的新见解

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Hydrogen production with Chlamydomonas reinhardtii induced by sulphur starvation is a multiphase process while the cell internal metabolism is completely remodelled. The first cellular response is characterized by induction of genes with regulatory functions, followed by a total remodelling of the metabolism to provide reduction equivalents for cellular processes. We were able to characterize all major processes that provide energy and reduction equivalents during hydrogen production. Furthermore, C.????reinhardtii showed a strong transcript increase for gene models responsible for stress response and detoxification of oxygen radicals. Finally, we were able to determine potential bottlenecks and target genes for manipulation to increase hydrogen production or to prolong the hydrogen production phase. The investigation of transcriptomic changes during the time course of hydrogen production in C.????reinhardtii with microarrays and RNA?¢????seq revealed new insights into the regulation and remodelling of the cell internal metabolism. Both methods showed a good correlation. The microarray platform can be used as a reliable standard tool for routine gene expression analysis. RNA?¢????seq additionally allowed a detailed time?¢????dependent study of gene expression and determination of new genes involved in the hydrogen production process.
机译:硫饥饿导致莱茵衣藻产生氢是一个多相过程,而细胞内部代谢被完全重塑。首次细胞反应的特征是诱导具有调节功能的基因,然后对代谢进行完全重塑,从而为细胞过程提供还原当量。我们能够表征所有主要过程,这些过程在制氢过程中提供能量并减少当量。此外,对于负责应激反应和氧自由基的解毒的基因模型,C.reinhardtii显示出强劲的转录本增加。最后,我们能够确定潜在的瓶颈和目标基因,以进行操纵以增加氢的产生或延长氢的产生阶段。用微阵列和RNA序列研究在莱茵衣藻中制氢过程中转录组的变化,揭示了对细胞内部代谢的调控和重塑的新见解。两种方法均显示出良好的相关性。微阵列平台可以用作常规基因表达分析的可靠标准工具。 RNA序列还允许对基因表达进行详细的时间依赖性研究,并确定参与制氢过程的新基因。

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