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首页> 外文期刊>Scientific reports. >Transcriptome landscape of perennial wild Cicer microphyllum uncovers functionally relevant molecular tags regulating agronomic traits in chickpea
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Transcriptome landscape of perennial wild Cicer microphyllum uncovers functionally relevant molecular tags regulating agronomic traits in chickpea

机译:多年生野生COICER脱蛋白的转录组景观发现功能上相关的分子标签调节鹰嘴豆农艺性状的农艺性状

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The RNA-sequencing followed by de-novo transcriptome assembly identified 11621 genes differentially xpressed in roots vs. shoots of a wild perennial Cicer microphyllum. Comparative analysis of transcriptomes between microphyllum and cultivated desi cv. ICC4958 detected 12772 including 3242 root- and 1639 shoot-specific microphyllum genes with 85% expression validation success rate. Transcriptional reprogramming of microphyllum root-specific genes implicates their possible role in regulating differential natural adaptive characteristics between wild and cultivated chickpea. The transcript-derived 5698 including 282 in-silico polymorphic SSR and 127038 SNP markers annotated at a genome-wide scale exhibited high amplification and polymorphic potential among cultivated (desi and kabuli) and wild accessions suggesting their utility in chickpea genomics-assisted breeding applications. The functional significance of markers was assessed based on their localization in non-synonymous coding and regulatory regions of microphyllum root-specific genes differentially expressed predominantly in ICC 4958 roots under drought stress. A high-density 490 genic SSR- and SNP markers-anchored genetic linkage map identified six major QTLs regulating drought tolerance-related traits, yield per plant and harvest-index in chickpea. The integration of high-resolution QTL mapping with comparative transcriptome profiling delineated five microphyllum root-specific genes with non-synonymous and regulatory SNPs governing drought-responsive yield traits. Multiple potential key regulators and functionally relevant molecular tags delineated can drive translational research and drought tolerance-mediated chickpea genetic enhancement.
机译:RNA测序随后是De-Novo转录组组件鉴定11621个基因在根中差异X型靶向射击的基因与野生多年生CICER脱蛋白的芽。微孔和栽培Desi CV转录om的比较分析。 ICC4958检测到12772,包括3242个root和1639个噬菌体特异性脑脊基因,表达验证成功率为85%。中小学根本特异性基因的转录重编程意味着它们在调节野生和栽培鸡眼之间的差异天然适应性特征方面的作用。在基因组 - 范围规模中注释的转录物衍生的5698包括282个中的二氧化硅多晶型SSR和127038个SNP标记表现出培养(Desi和Kabuli)和野生途径中的高扩增和多态潜力,并在鹰嘴豆基因组学辅助育种应用中效用。根据其在干旱胁迫下的ICC 4958根中差异地表达的瞳孔根特异性基因的非同义编码和调节区域中的定位,评估标记物的功能意义。高密度490基因SSR-和SNP标记锚定遗传联系地图确定了六个主要QTLS调节干旱耐受性相关的性状,每株植物产量和鹰嘴豆的收获指数。高分辨率QTL测绘与对比转录组分析的集成划定了具有非同义和调节SNP的五种微色体根特异性基因治疗干旱响应屈服性状。多个潜在的关键调节器和功能相关的分子标签描绘可以推动翻译研究和耐水性介导的鹰嘴豆遗传增强。

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