CRISPR/Cas9技术的进展:塑造生物燃料生产光合微生物的未来。

IF 2.7 4区 生物学 Q2 PLANT SCIENCES
Samreen Arshad, Muhammad Luqman Qadir, Nazim Hussain, Qurban Ali, Shiming Han, Daoud Ali
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引用次数: 0

摘要

化石燃料的使用由于效率低下和即将耗尽而引起环境问题。这引起了人们对确定替代能源和可再生能源的兴趣,例如从光合生物中产生生物燃料。各种各样的原核和真核微生物,被称为微藻,在制造生物燃料(如生物氢、生物柴油、生物油和生物合成气)方面具有经济和生态可持续的潜力。利用现代生物工程技术,可以提高藻类生产优质生物量的内在潜力。在藻类生物技术中,通过rna引导的核酸内切酶进行定向基因组修饰是一种新的方法。CRISPR/Cas系统最近被频繁用于修改几种水生和淡水微藻的基因组成。大多数研究都使用cas9驱动的II型系统,这是两类六种独特的CRISPR系统中的一种,专门针对藻类中的所需基因,并将它们敲除或敲除,或者两者兼而有之。利用CRISPR技术修改其基因组成,微藻产生了更多的生物量,并增加了脂质含量。本文综述了迄今为止针对微藻基因组修饰的尝试,讨论了开发用于微藻大规模基因组修饰的CRISPR平台的前景,并指出了CRISPR/Cas9组件开发和分布中的机遇和挑战。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Advances in CRISPR/Cas9 technology: shaping the future of photosynthetic microorganisms for biofuel production.

Use of fossil fuels causes environmental issues due to its inefficiency and and imminent depletion. This has led to interest in identifying alternative and renewable energy sources such as biofuel generation from photosynthetic organisms. A wide variety of prokaryotic and eukaryotic microorganisms, known as microalgae, have the potential to be economical and ecologically sustainable in the manufacture of biofuels such as bio-hydrogen, biodiesel, bio-oils, and bio-syngas. By using contemporary bioengineering techniques, the innate potential of algae to produce biomass of superior quality may be enhanced. In algal biotechnology, directed genome modification via RNA-guided endonucleases is a new approach. CRISPR/Cas systems have recently been frequently used to modify the genetic makeup of several aquatic and freshwater microalgae. The majority of research has used the Cas9-driven Type II system, one of two classes and six unique kinds of CRISPR systems, to specifically target desired genes in algae, and knock them out and down, or both. Using CRISPR technology to modify its genetic makeup, microalgae has produced more biomass and increased in lipid content. This review highlights the attempts made so far to target microalgae genome modification, discusses the prospects for developing the CRISPR platform for large-scale genome modification of microalgae, and identifies the opportunities and challenges in the development and distribution of CRISPR/Cas9 components.

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来源期刊
Functional Plant Biology
Functional Plant Biology 生物-植物科学
CiteScore
5.50
自引率
3.30%
发文量
156
审稿时长
1 months
期刊介绍: Functional Plant Biology (formerly known as Australian Journal of Plant Physiology) publishes papers of a broad interest that advance our knowledge on mechanisms by which plants operate and interact with environment. Of specific interest are mechanisms and signal transduction pathways by which plants adapt to extreme environmental conditions such as high and low temperatures, drought, flooding, salinity, pathogens, and other major abiotic and biotic stress factors. FPB also encourages papers on emerging concepts and new tools in plant biology, and studies on the following functional areas encompassing work from the molecular through whole plant to community scale. FPB does not publish merely phenomenological observations or findings of merely applied significance. Functional Plant Biology is published with the endorsement of the Commonwealth Scientific and Industrial Research Organisation (CSIRO) and the Australian Academy of Science. Functional Plant Biology is published in affiliation with the Federation of European Societies of Plant Biology and in Australia, is associated with the Australian Society of Plant Scientists and the New Zealand Society of Plant Biologists.
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