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Adventitious embryonic causal gene FhRWP regulates multiple developmental phenotypes in citrus reproduction

生物 遗传学 染色质 多胚 基因 基因表达调控 细胞生物学 表型 基因调控网络 胚胎 基因表达
作者
Xietian Song,Nan Wang,Yin Zhou,Xiao Yu Tian,Zongzhou Xie,Lijun Chai,Xiao‐Meng Wu,Qiang Xu,Fei Zhang,Junli Ye,Xiuxin Deng
出处
期刊:Plant Journal [Wiley]
卷期号:119 (3): 1494-1507 被引量:2
标识
DOI:10.1111/tpj.16870
摘要

SUMMARY Citrus is a model plant for studying adventitious embryos, a form of asexual reproduction controlled by a single dominant gene, RWP . This gene has been identified as the causal gene for nucellar embryogenesis, but its function has not yet been fully understood. In this study, we used the fast‐growing Fortunella hindsii as a system to explore chromatin accessibility during the nucellar embryony initiation, emphasizing elevated chromatin accessibility in polyembryonic (PO) genotypes compared to monoembryonic ones (MO). Notably, a higher level of accessible chromatin was observed in one allele of the promoter region of FhRWP , consistent with increased expression of the allele carrying the causal structural variant. By independently performing RNAi and gene editing experiments on PO genotypes, we found the downregulation of FhRWP expression could reduce the number of nucellar embryos, while its knockout resulted in abnormal axillary bud development. In overexpression experiments, FhRWP was identified as having the unique capability of inducing the embryogenic callus formation in MO stem segments, possibly through the regulation of the WUS‐CLV signaling network and the ABA and cytokinin pathway, marking the inaugural demonstration of FhRWP's potential to reignite somatic cells' embryogenic fate. This study reveals the pleiotropic function of RWP in citrus and constructs a regulatory network during adventitious embryo formation, providing a new tool for bioengineering applications in plant regeneration.

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