Genome-wide association studies in horticultural crops: decoding genetic diversity for precision breeding

生物 全基因组关联研究 特质 遗传多样性 生物技术 基因组学 人口 遗传关联 选择(遗传算法) 计算生物学 数量性状位点 遗传建筑学 适应(眼睛) 多样性(政治) 遗传变异 进化生物学 基因组选择 数据科学 植物育种 非生物胁迫 转录激活物样效应核酸酶 群体遗传学 基因组 工作流程 遗传学 人类遗传学 农业 关联映射 鉴定(生物学)
作者
Dandan Lou,Yuyao Zhang,Pengchuan Wu,Hui Xiao,Fei Guo,Xi Zhang,Pei Wang,Weilong Kong
出处
期刊:Horticulture research [Nature Portfolio]
卷期号:13 (6): uhag059-uhag059 被引量:1
标识
DOI:10.1093/hr/uhag059
摘要

Horticultural crops, including fruits, vegetables, ornamental plants, and tea plants, are vital for economic and nutritional sustainability, yet their cultivation is severely hampered by abiotic stresses such as heat, cold, and salinity. The advent of the grapevine genome in 2007 initiated the genomic era for horticultural species. This milestone facilitated the use of genome-wide association studies (GWAS) to decode the complex phenotypic diversity of these crops. Unlike traditional methods, GWAS utilizes natural genetic diversity to identify quantitative trait loci linked to key traits, offering a high-resolution approach for dissecting traits such as stress resistance, quality, and yield. This review highlights the innovative workflows and technical advancements in GWAS applications for horticultural crops, covering aspects including population design, high-throughput phenotyping, sophisticated statistical modeling, and their applications in horticultural plants. Notably, the integration of multi-omics approaches has enhanced our understanding of the genetic mechanisms underlying critical horticultural traits. Future directions aim at harnessing technological innovations, cross-omics synthesis, and precision breeding strategies to optimize trait selection and expedite the development of resilient cultivars. Consequently, GWAS serves as a crucial bridge linking genomic variation to practical applications in horticultural improvement, enabling a paradigm shift toward predictive breeding and sustainable agricultural practices.
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