Multiplex‐genome‐editing based rapid directional improvement of complex traits in rice

生物 种质资源 基因组 水稻 计算生物学 遗传学 基因 生物技术 农学
作者
Yidong Wei,Haomin Zhang,Jiaxing Fan,Qiuhua Cai,Zhixing Zhang,Jinlan Wang,Min Zhang,Fangfang Yan,Jiahuan Jiang,Hong‐Guang Xie,Xi Luo,Linyan Wei,Yuelong Lin,He Wang,Mengyu Qu,Xinxin Zhang,Yong Zhu,Huaan Xie,Jian‐Fu Zhang
出处
期刊:Plant Biotechnology Journal [Wiley]
标识
DOI:10.1111/pbi.14375
摘要

Summary Although thousands of genes have been identified or cloned in rice ( Oryza sativa ) in the last two decades, the majority of them have only been separately characterized in specific varieties or single‐gene modified backgrounds, thus limiting their practical application. We developed an optimized multiplex genome editing (MGE) toolbox that can efficiently assemble and stably express up to twelve sgRNA targets in a single plant expression vector. In this study, we established the MGE‐based Rapid Directional Improvement (MRDI) strategy for directional improvement of complex agronomic traits in one small‐scale rice transformation. This approach provides a rapid and practical procedure, encompassing sgRNA assembly, transgene‐free screening and the creation of promising germplasm, by combining the precision of gene editing with phenotype‐based field breeding. The MRDI strategy was used to generate the full diversity of twelve main agronomic genes in rice cultivar FXZ for the directional improvement of its growth duration and plant architecture. After applying the MRDI to FXZ, ideal plants with the desired traits of early heading date reduced plant height, and more effective panicles were generated without compromising yield, blast resistance and grain quality. Furthermore, the results of whole‐genome sequencing (WGS), including the analysis of structural variations (SVs) and single nucleotide variations (SNVs) in the MGE plants, confirmed the high specificity and low frequency of unwanted mutations associated with this strategy. The MRDI breeding strategy would be a robust approach for exploring and applying crucial agronomic genes, as well as for generating novel elite germplasm in the future.
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