作物学报 ›› 2013, Vol. 39 ›› Issue (12): 2154-2161.doi: 10.3724/SP.J.1006.2013.02154
赖勇1,2,**,孟亚雄1,2,**,王晋1,2,范贵强1,2,司二静1,2,王鹏喜1,2,李葆春1,3,马小乐2,杨轲1,2,尚勋武2,王化俊1,2,*
LAI Yong1,2,**,MENG Ya-Xiong1,2,**,WANG Jin1,2,FAN Gui-Qiang1,2,SI Er-Jing1,2,WANG Peng-Xi1,2,LI Bao-Chun3,MA Xiao-Le2,YANG Ke1,2,SHANG Xu-Wu2,WANG Hua-Jun1,2,*
摘要:
为了合理评价引进种质资源,为大麦基因发掘及育种组合配置提供依据,选用分布于全基因组的64个SSR标记,对221份大麦材料进行了基因型分析。共检测到192个等位变异,变幅为2~7个;基因频率变异范围为0.0090~0.9729,平均0.3333;全部位点的基因多样性变化范围在0.0528~0.7807,平均0.4813;多态性信息含量(PIC)变异范围在0.0514~0.7464,平均0.4113。供试材料间遗传相似系数变幅为0.4844~0.9792,平均0.7023。221份材料被划分成两大群7个亚群,国内地方品种与1份北京品种为一大群,国内育种品种与所有国外引进品种为另一群。遗传结构分析与聚类结果基本一致,两大类群间的遗传距离为0.3358,且第二大群多样性比第一大群丰富。2016个SSR位点成对组合中,不论共线性组合还是非共线性组合,都存在一定程度的连锁不平衡(LD)。D′统计概率(P<0.01)支持的LD成对位点830个,占全部位点组合的41.2%,D′平均值为0.4,整体LD水平较高。栽培品种的LD水平高于地方品种,且现代遗传改良的目标性状集中于2H、4H、6H和7H染色体。
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