A novel genome sequence ofJasminum sambachelps uncover the molecular mechanism underlying the accumulation of jasmonates

生物 花瓣 基因组 转录组 基因 水杨酸 遗传学 计算生物学 植物 基因表达
作者
Min Xu,Qiang Gao,Mengwei Jiang,Wenling Wang,Juan Hu,Xiaojun Chang,Dinggao Liu,Yuwei Liang,Yifan Jiang,Fei Chen,Chuhao Li,Haoran Huang,Feng Chen,Fan Li,Robert N. Trigiano,Jihua Wang,Chen Jiao,Xiaofan Zhou,Liangsheng Zhang
出处
期刊:Journal of Experimental Botany [Oxford University Press]
卷期号:74 (4): 1275-1290 被引量:3
标识
DOI:10.1093/jxb/erac464
摘要

Jasminum sambac is a well-known plant for its attractive and exceptional fragrance, the flowers of which are used to produce scented tea. Jasmonate (JA), an important plant hormone was first identified in Jasminum species. Jasmine plants contain abundant JA naturally, of which the molecular mechanisms of synthesis and accumulation are not clearly understood. Here, we report a telomere-to-telomere consensus assembly of a double-petal J. sambac genome along with two haplotype-resolved genomes. We found that gain-and-loss, positive selection, and allelic specific expression of aromatic volatile-related genes contributed to the stronger flower fragrance in double-petal J. sambac compared with single- and multi-petal jasmines. Through comprehensive comparative genomic, transcriptomic, and metabolomic analyses of double-petal J. sambac, we revealed the genetic basis of the production of aromatic volatiles and salicylic acid (SA), and the accumulation of JA under non-stress conditions. We identified several key genes associated with JA biosynthesis, and their non-stress related activities lead to extraordinarily high concentrations of JA in tissues. High JA synthesis coupled with low degradation in J. sambac results in accumulation of high JA under typical environmental conditions, similar to the accumulation mechanism of SA. This study offers important insights into the biology of J. sambac, and provides valuable genomic resources for further utilization of natural products.
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