Li Yu-Hsiu, Juo Jiun-Jang, Ng I-Son
Department of Chemical Engineering, National Cheng Kung University, Tainan, 701, Taiwan.
Bioresour Bioprocess. 2025 Jun 18;12(1):63. doi: 10.1186/s40643-025-00907-3.
Atmospheric and Room Temperature Plasma (ARTP) mutagenesis has emerged as a novel and powerful physical mutation technology for microbial strain improvement recently. ARTP operates at atmospheric pressure and room temperature using a helium plasma jet, inducing widespread genomic mutations through reactive species and DNA damage. Compared to traditional mutagenesis methods, ARTP is safer, more efficient, and capable of producing high mutation rates without genetic modification, making it a valuable and sophisticated tool in biomanufacturing. This review outlines the principles and diverse applications of ARTP technology for enhancing enzyme activity, metabolite yields, and stress tolerance across various organisms. It also provides a comprehensive discussion of underlying biological mechanisms, workflow, optimization parameters, and potential cellular instability associated with ARTP-induced mutagenesis. Finally, current breakthroughs and future perspectives of ARTP mutagenesis are addressed, emphasizing its role in advancing next-generation microbial platforms for industrial biotechnology and environmental sustainability.
常压室温等离子体(ARTP)诱变最近已成为一种用于微生物菌株改良的新型强大物理诱变技术。ARTP在常压和室温下使用氦等离子体射流运行,通过活性物种和DNA损伤诱导广泛的基因组突变。与传统诱变方法相比,ARTP更安全、更高效,能够在不进行基因改造的情况下产生高突变率,使其成为生物制造中有价值且先进的工具。本综述概述了ARTP技术在提高各种生物体的酶活性、代谢产物产量和胁迫耐受性方面的原理及多样应用。还全面讨论了与ARTP诱变相关的潜在生物学机制、工作流程、优化参数以及细胞不稳定性。最后,阐述了ARTP诱变的当前突破和未来前景,强调了其在推进用于工业生物技术和环境可持续性的下一代微生物平台中的作用。