Advanced strategy for metabolite exploration in filamentous fungi

被引:10
|
作者
Deng, Huaxiang [1 ,2 ]
Bai, Yajun [3 ]
Fan, Tai-Ping [4 ]
Zheng, Xiaohui [3 ]
Cai, Yujie [1 ]
机构
[1] Jiangnan Univ, Sch Biotechnol, Minist Educ, Key Lab Ind Biotechnol, Wuxi, Jiangsu, Peoples R China
[2] Shenzhen Inst Adv Technol, Inst Synthet Biol, Ctr Synthet Biochem, Shenzhen, Peoples R China
[3] Northwest Univ, Coll Life Sci, Xian, Shanxi, Peoples R China
[4] Univ Cambridge, Dept Pharmacol, Cambridge, England
基金
中国博士后科学基金;
关键词
Natural products; filamentous fungi; high throughput engineering; pathway deconstruction; drug discovery; biosynthetic gene clusters; metabolic balance; BIOSYNTHETIC GENE CLUSTERS; OXIDATIVE STRESS; HETEROLOGOUS EXPRESSION; PENICILLIUM-CHRYSOGENUM; ASPERGILLUS-ORYZAE; ACID PRODUCTION; L-MALATE; EFFICIENT; PATHWAY; PROTEIN;
D O I
10.1080/07388551.2019.1709798
中图分类号
Q81 [生物工程学(生物技术)]; Q93 [微生物学];
学科分类号
071005 ; 0836 ; 090102 ; 100705 ;
摘要
Filamentous fungi comprise an abundance of gene clusters that encode high-value metabolites, whereas affluent gene clusters remain silent during laboratory conditions. Complex cellular metabolism further limits these metabolite yields. Therefore, diverse strategies such as genetic engineering and chemical mutagenesis have been developed to activate these cryptic pathways and improve metabolite productivity. However, lower efficiencies of gene modifications and screen tools delayed the above processes. To address the above issues, this review describes an alternative design-construction evaluation optimization (DCEO) approach. The DCEO tool provides theoretical and practical principles to identify potential pathways, modify endogenous pathways, integrate exogenous pathways, and exploit novel pathways for their diverse metabolites and desirable productivities. This DCEO method also offers different tactics to balance the cellular metabolisms, facilitate the genetic engineering, and exploit the scalable metabolites in filamentous fungi.
引用
收藏
页码:180 / 198
页数:19
相关论文
共 50 条
  • [31] Histopathology Diagnosis of Filamentous Fungi
    Challa, Sundaram
    Sistla, Radha
    CURRENT FUNGAL INFECTION REPORTS, 2022, 16 (01) : 17 - 32
  • [32] Microcyle Conidiation in Filamentous Fungi
    Jung, Boknam
    Kim, Soyeon
    Lee, Jungkwan
    MYCOBIOLOGY, 2014, 42 (01) : 1 - 5
  • [33] Mitochondrial dynamics in filamentous fungi
    Westermann, B
    Prokisch, H
    FUNGAL GENETICS AND BIOLOGY, 2002, 36 (02) : 91 - 97
  • [34] Membrane Traffic in Aspergillus oryzae and Related Filamentous Fungi
    Higuchi, Yujiro
    JOURNAL OF FUNGI, 2021, 7 (07)
  • [35] Cultivation of filamentous fungi in airlift bioreactors: advantages and disadvantages
    Cerrone, Federico
    O'Connor, Kevin E.
    APPLIED MICROBIOLOGY AND BIOTECHNOLOGY, 2025, 109 (01)
  • [36] Autophagy during conidiation and conidial germination in filamentous fungi
    Kikuma, Takashi
    Arioka, Manabu
    Kitamoto, Katsuhiko
    AUTOPHAGY, 2007, 3 (02) : 128 - 129
  • [37] Golden Gate vectors for efficient gene fusion and gene deletion in diverse filamentous fungi
    Dahlmann, Tim A.
    Terfehr, Dominik
    Becker, Kordula
    Teichert, Ines
    CURRENT GENETICS, 2021, 67 (02) : 317 - 330
  • [38] Core-Shell Droplet-Based Microfluidic Screening System for Filamentous Fungi
    Zhang, Changtai
    Wu, Xiaohui
    Song, Fuqiang
    Liu, Song
    Yu, Shiqin
    Zhou, Jingwen
    ACS SENSORS, 2023, 8 (09) : 3468 - 3477
  • [39] CRISPR-Mediated Activation of Biosynthetic Gene Clusters for Bioactive Molecule Discovery in Filamentous Fungi
    Roux, Indra
    Woodcraft, Clara
    Hu, Jinyu
    Wolters, Rebecca
    Gilchrist, Cameron L. M.
    Chooi, Yit-Heng
    ACS SYNTHETIC BIOLOGY, 2020, 9 (07): : 1843 - 1854
  • [40] Microbial cell factories based on filamentous bacteria, yeasts, and fungi
    Ding, Qiang
    Ye, Chao
    MICROBIAL CELL FACTORIES, 2023, 22 (01)