溶解
蓝藻
生物
噬菌体
微生物学
细菌
化学
计算生物学
生物技术
遗传学
生物化学
大肠杆菌
基因
作者
Haojie Jin,Wanzhao Ge,Mengzhe Li,Yan Wang,Yanjing Jiang,Jiaqi Zhang,Yike Jing,Yigang Tong,Yujie Fu
标识
DOI:10.1080/07388551.2024.2399530
摘要
Cyanobacteria, the only oxygenic photoautotrophs among prokaryotes, are developing as both carbon building blocks and energetic self-supported chassis for the generation of various bioproducts. However, one of the challenges to optimize it as a more sustainable platform is how to release intracellular bioproducts for an easier downstream biorefinery process. To date, the major method used for cyanobacterial cell lysis is based on mechanical force, which is energy-intensive and economically unsustainable. Phage-mediated bacterial cell lysis is species-specific and highly efficient and can be conducted under mild conditions; therefore, it has been intensively studied as a bacterial cell lysis weapon. In contrast to heterotrophic bacteria, biological cell lysis studies in cyanobacteria are lagging behind. In this study, we reviewed cyanobacterial cell envelope features that could affect cell strength and elicited a thorough presentation of the necessary phage lysin components for efficient cell lysis. We then summarized all bioengineering manipulated pipelines for lysin component optimization and further revealed the challenges for each intent-oriented application in cyanobacterial cell lysis. In addition to applied biotechnology usage, the significance of phage-mediated cyanobacterial cell lysis could also advance sophisticated biochemical studies and promote biocontrol of toxic cyanobacteria blooms.
科研通智能强力驱动
Strongly Powered by AbleSci AI