Gao Jing, Liu Huiqing, Zhang Zhenzhen, Liang Zhihong
College of Food Science and Nutritional Engineering, China Agricultural University, Beijing, China.
The Supervision, Inspection and Testing Center of Genetically Modified Organisms, Ministry of Agriculture, Beijing, China.
Front Microbiol. 2023 Mar 21;14:1141869. doi: 10.3389/fmicb.2023.1141869. eCollection 2023.
is widely distributed in nature and occupies a crucial ecological niche, which has complex and diverse metabolic pathways and can produce a variety of metabolites. With the deepening of genomics exploration, more genomic informations have been elucidated, which not only help us understand the basic mechanism of various life activities, but also further realize the ideal functional transformation. Available genetic engineering tools include homologous recombinant systems, specific nuclease based systems, and RNA techniques, combined with transformation methods, and screening based on selective labeling. Precise editing of target genes can not only prevent and control the production of mycotoxin pollutants, but also realize the construction of economical and efficient fungal cell factories. This paper reviewed the establishment and optimization process of genome technologies, hoping to provide the theoretical basis of experiments, and summarized the recent progress and application in genetic technology, analyzes the challenges and the possibility of future development with regard to .
它在自然界中广泛分布,占据着关键的生态位,具有复杂多样的代谢途径,能产生多种代谢产物。随着基因组学探索的深入,更多的基因组信息得以阐明,这不仅有助于我们理解各种生命活动的基本机制,还能进一步实现理想的功能转化。可用的基因工程工具包括同源重组系统、基于特异性核酸酶的系统以及RNA技术,结合转化方法,并基于选择性标记进行筛选。对靶基因的精确编辑不仅可以预防和控制霉菌毒素污染物的产生,还能实现经济高效的真菌细胞工厂的构建。本文综述了基因组技术的建立和优化过程,希望提供实验的理论基础,并总结了基因技术的最新进展和应用,分析了相关挑战以及未来发展的可能性。