基因分型
浆果
生物
吞吐量
弹性(材料科学)
质量(理念)
计算生物学
遗传学
生物技术
计算机科学
基因
基因型
园艺
材料科学
操作系统
哲学
认识论
无线
复合材料
作者
Yuyu Zhang,Yongjian Wang,M. Henke,Pablo Carbonell‐Bejerano,Zemin Wang,Pierre‐François Bert,Yi Wang,Huayang Li,Junhua Kong,Peige Fan,Zhanwu Dai,Zhenchang Liang
标识
DOI:10.1002/advs.202412587
摘要
Abstract Investigating the genetic architecture of important agronomic traits in grapevine, like berry quality and resilience to abiotic stress, has been hampered by bottlenecks in genotyping and phenotyping. To address these limitations, this study aimed to develop innovative tools to unravel the complex polygenic genomic architecture of these traits. Specifically, a high‐density 200K single nucleotide polymorphism array is developed and validated its effectiveness by genotyping 471 accessions from three F 1 breeding populations. A high‐throughput grape phenotyping tool is developed to accurately capture berry color, shape, and size. By integrating data from the two platforms, associated loci are identified over three growing seasons. Association mapping and haplotype analysis identified novel loci and candidate genes for berry shape ( bHLH017 ), soluble sugars ( ACT ), and organic acids ( ALMT1 and FUSC2 ), as well as vine cold tolerance ( NAC08 ), and fine‐mapped the flower sex determination locus. Furthermore, the functional role of NAC08 is validated, demonstrating that it activates the expression of a raffinose synthase gene, thereby increasing raffinose levels and conferring cold tolerance. Together, these augmented tools, the integrated data, and novel loci establish a better foundation for trait aggregation that will enhance breeding efficiency and boost the development of high‐quality grape varieties.
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