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A model of the circadian clock in the cyanobacterium Cyanothece sp. ATCC 51142

机译:蓝藻蓝藻属中昼夜节律的模型。 ATCC 51142

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摘要

BackgroundThe over consumption of fossil fuels has led to growing concerns over climate change and global warming. Increasing research activities have been carried out towards alternative viable biofuel sources. Of several different biofuel platforms, cyanobacteria possess great potential, for their ability to accumulate biomass tens of times faster than traditional oilseed crops. The cyanobacterium Cyanothece sp. ATCC 51142 has recently attracted lots of research interest as a model organism for such research. Cyanothece can perform efficiently both photosynthesis and nitrogen fixation within the same cell, and has been recently shown to produce biohydrogen--a byproduct of nitrogen fixation--at very high rates of several folds higher than previously described hydrogen-producing photosynthetic microbes. Since the key enzyme for nitrogen fixation is very sensitive to oxygen produced by photosynthesis, Cyanothece employs a sophisticated temporal separation scheme, where nitrogen fixation occurs at night and photosynthesis at day. At the core of this temporal separation scheme is a robust clocking mechanism, which so far has not been thoroughly studied. Understanding how this circadian clock interacts with and harmonizes global transcription of key cellular processes is one of the keys to realize the inherent potential of this organism.
机译:背景技术化石燃料的过度消费已引起人们对气候变化和全球变暖的日益关注。已经对替代生物燃料的来源开展了越来越多的研究活动。在几种不同的生物燃料平台中,蓝细菌具有巨大的潜力,因为它们积累生物量的能力比传统油料作物快数十倍。蓝藻蓝藻属。作为用于这种研究的模型生物,ATCC 51142最近吸引了许多研究兴趣。蓝藻可以在同一细胞内有效地进行光合作用和固氮,并且最近被证明可以产生生物氢-固氮的副产物-比先前描述的产氢光合微生物高出几倍。由于固氮的关键酶对光合作用产生的氧气非常敏感,因此氰氰菊酯采用了复杂的时间分离方案,其中固氮作用发生在晚上,光合作用发生在白天。这种时间分离方案的核心是健壮的时钟机制,到目前为止尚未对其进行深入研究。了解该生物钟如何与关键细胞过程的整体转录相互作用并使其协调一致,是实现该生物体固有潜力的关键之一。

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