Advances of high-throughput sequencing for unraveling biotechnological potential of microalgal-bacterial communities

IF 4.6 Q2 MATERIALS SCIENCE, BIOMATERIALS ACS Applied Bio Materials Pub Date : 2024-05-18 DOI:10.1007/s10811-024-03267-1
Petr A. Zaytsev, Vladimir A. Rodin, Anna A. Zaytseva, Maria I. Zvereva, Alexei E. Solovchenko
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Abstract

Although established biotechnological applications of microalgae e.g., the production of high-value metabolites is based on axenic cultures, exploitation of the mutualistic consortia of microalgae and bacteria quickly comes to foreground, especially in bioremediation and wastewater treatment. This trend shifts the focus from genomic research of certain microalgal species to metagenomic studies of interactions between microalgae and bacteria in natural communities and in artificial consortia. Dissection of the genetic determinants of the robustness and productivity of the consortia become a hot research direction, too. Admirable contribution to this topic had been made by high-throughput sequencing (HTS), while recent breakthrough in this field was entailed by the advent and rapid development of the 3rd generation nanopore sequencing which becomes increasingly accurate while providing unprecedented sequencing performance. Recent progress of the Oxford Nanopore Technologies (ONT) enabled both classical metagenomic analysis of microalgal-bacterial communities based on whole metagenome sequencing as well as taxonomic and genetic profiling based on the amplicon sequencing. The parallel emergence of novel bioinformatic algorithms for processing the metagenomic datasets opened new opportunities for the analysis of structure and physiology of microalgal-bacterial communities. From the practical perspective, the new HTS techniques became a time- and labor-savers in discovery of new microalgae with a high potential for the accumulation of valuable metabolites, biodegradation of hazardous micropollutants, and biosequestration of nutrients from waste streams. Search for prokaryotic species boosting the biotechnological potential of eukaryotic microalgae via mutualistic interactions with them is another important goal. The insights from the both short-read and long-read metagenomics will form a solid foundation for the rational design of microalgal-bacterial consortia for biotechnology. In this review, we briefly outline the benefits of the long-read sequencing for structural and functional investigation of algal-bacterial consortia and summarize recent reports on using this approach for achieving the biotechnology-related goals.

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高通量测序在揭示微藻-细菌群落生物技术潜力方面的进展
尽管微藻的生物技术应用(如高价值代谢物的生产)已经建立在轴向培养的基础上,但对微藻和细菌的互生联合体的开发利用很快就成为人们关注的焦点,尤其是在生物修复和废水处理方面。这一趋势将重点从某些微藻物种的基因组研究转移到自然群落和人工联合体中微藻与细菌之间相互作用的元基因组研究。剖析决定联合体稳健性和生产力的遗传因素也成为一个热门研究方向。高通量测序技术(HTS)为这一课题做出了令人钦佩的贡献,而第三代纳米孔测序技术的出现和快速发展则为这一领域带来了最新突破。牛津纳米孔技术(ONT)的最新进展使基于整个元基因组测序的微藻-细菌群落经典元基因组分析以及基于扩增子测序的分类和遗传分析成为可能。与此同时,用于处理元基因组数据集的新型生物信息学算法的出现,为分析微藻-细菌群落的结构和生理学提供了新的机会。从实用角度看,新的 HTS 技术节省了时间和人力,有助于发现在积累有价值的代谢物、生物降解有害微污染物和生物吸收废物流中的营养物质方面潜力巨大的新微藻类。另一个重要目标是寻找原核生物物种,通过与真核微藻的互惠互利作用,提升真核微藻的生物技术潜力。短读元基因组学和长读元基因组学的研究成果将为合理设计用于生物技术的微藻-细菌联合体奠定坚实的基础。在这篇综述中,我们简要概述了长读数测序在藻类-细菌联合体的结构和功能研究中的优势,并总结了最近关于使用这种方法实现生物技术相关目标的报道。
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来源期刊
ACS Applied Bio Materials
ACS Applied Bio Materials Chemistry-Chemistry (all)
CiteScore
9.40
自引率
2.10%
发文量
464
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