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Recent developments in synthetic biology and metabolic engineering in microalgae towards biofuel production

机译:微藻类合成生物学和代谢工程学向生物燃料生产的最新进展

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摘要

In the wake of the uprising global energy crisis, microalgae have emerged as an alternate feedstock for biofuel production. In addition, microalgae bear immense potential as bio-cell factories in terms of producing key chemicals, recombinant proteins, enzymes, lipid, hydrogen and alcohol. Abstraction of such high-value products (algal biorefinery approach) facilitates to make microalgae-based renewable energy an economically viable option. Synthetic biology is an emerging field that harmoniously blends science and engineering to help design and construct novel biological systems, with an aim to achieve rationally formulated objectives. However, resources and tools used for such nuclear manipulation, construction of synthetic gene network and genome-scale reconstruction of microalgae are limited. Herein, we present recent developments in the upcoming field of microalgae employed as a model system for synthetic biology applications and highlight the importance of genome-scale reconstruction models and kinetic models, to maximize the metabolic output by understanding the intricacies of algal growth. This review also examines the role played by microalgae as biorefineries, microalgal culture conditions and various operating parameters that need to be optimized to yield biofuel that can be economically competitive with fossil fuels.
机译:在全球能源危机爆发之后,微藻已成为生物燃料生产的替代原料。此外,在生产关键化学品,重组蛋白,酶,脂质,氢和醇方面,微藻作为生物细胞工厂具有巨大潜力。提取此类高价值产品(藻类生物精炼法)有助于使基于微藻类的可再生能源成为经济上可行的选择。合成生物学是一个新兴领域,它将科学与工程和谐地融合在一起,以帮助设计和构建新颖的生物系统,以期达到合理制定的目标。然而,用于这种核操作,合成基因网络的构建和微藻的基因组规模重建的资源和工具是有限的。在此,我们介绍了微藻作为合成生物学应用模型系统即将到来的领域中的最新进展,并强调了基因组规模的重建模型和动力学模型对通过理解藻类生长的复杂性来最大化代谢输出的重要性。这篇综述还探讨了微藻作为生物精炼厂,微藻培养条件和各种运行参数所起的作用,需要对其进行优化以产生可与化石燃料在经济上竞争的生物燃料。

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