Unmodificated stepless regulation of CRISPR/Cas12a multi-performance

清脆的 反式激活crRNA 生物 核酸酶 计算生物学 基因组编辑 CRISPR干扰 灵活性(工程) 合成生物学 相容性(地球化学) 纳米技术 生化工程 计算机科学 DNA 遗传学 基因 工程类 材料科学 统计 化学工程 数学
作者
Rong Zhao,Wang Luo,You Wu,Li Zhang,Xin Liu,Junjie Li,Yujun Yang,Li Wang,Luojia Wang,Xiaole Han,Zhongzhong Wang,Jianhong Zhang,Ke Lv,Tingmei Chen,Guoming Xie
出处
期刊:Nucleic Acids Research [Oxford University Press]
卷期号:51 (19): 10795-10807 被引量:9
标识
DOI:10.1093/nar/gkad748
摘要

As CRISPR technology is promoted to more fine-divided molecular biology applications, its inherent performance finds it increasingly difficult to cope with diverse needs in these different fields, and how to more accurately control the performance has become a key issue to develop CRISPR technology to a new stage. Herein, we propose a CRISPR/Cas12a regulation strategy based on the powerful programmability of nucleic acid nanotechnology. Unlike previous difficult and rigid regulation of core components Cas nuclease and crRNA, only a simple switch of different external RNA accessories is required to change the reaction kinetics or thermodynamics, thereby finely and almost steplessly regulating multi-performance of CRISPR/Cas12a including activity, speed, specificity, compatibility, programmability and sensitivity. In particular, the significantly improved specificity is expected to mark advance the accuracy of molecular detection and the safety of gene editing. In addition, this strategy was applied to regulate the delayed activation of Cas12a, overcoming the compatibility problem of the one-pot assay without any physical separation or external stimulation, and demonstrating great potential for fine-grained control of CRISPR. This simple but powerful CRISPR regulation strategy without any component modification has pioneering flexibility and versatility, and will unlock the potential for deeper applications of CRISPR technology in many finely divided fields.
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