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QTL mapping of drought tolerance traits in soybean with SLAF sequencing

Honglei Ren  Jianan Han  Xingrong Wang  Bo Zhang  Lili Yu  Huawei Gao  Huilong Hong  Rujian Sun  Yu Tian  Xusheng Qi  Zhangxiong Liu  Xiaoxia Wu  Li-Juan Qiu  
【摘要】:Drought stress is an important factor affecting soybean yield. Improving drought tolerance of soybean varieties can increase yield and yield stability when the stress occurs.Identifying QTL related to drought tolerance using molecular marker-assisted selection is able to facilitate the development of drought-tolerant soybean varieties. In this study, we used a high-yielding and drought-sensitive cultivar ‘Zhonghuang 35' and a drought-tolerant cultivar ‘Jindou 21' to establish F6:9 recombinant inbred lines. We constructed a highdensity genetic map using specific locus amplified fragment sequencing(SLAF-Seq)technology. The genetic map contained 8078 SLAF markers distributing across 20 soybean chromosomes with a total genetic distance of 3780.98 c M and an average genetic distance of0.59 c M between adjacent markers. Two treatments(irrigation and drought) were used in the field tests, the Additive-Inclusive Composite Interval Mapping(ICIM-ADD) was used to call QTL, and plant height and seed weight per plant were used as the indicators of drought tolerance. We identified a total of 23 QTL related to drought tolerance. Among them, seven QTL(q PH2, q PH6, q PH7, q PH17, q PH19-1, q PH19-2, and q PH19-3) on chromosomes 2, 6, 7, 17,and 19 were related to plant height, and five QTL(q SWPP2, q SWPP6, q SWPP13, q SWPP17, and q SWPP19) on chromosomes 2, 6, 13, 17, and 19 were related to seed weight and could be considered as the major QTL. In addition, three common QTL(q PH6/q SWPP6, q PH17/q SWPP17, and q PH19-3/q SWPP19) for both plant height and seed weight per plant were located in the same genomic regions on the same chromosomes. Three(q PH2, q PH17, and q PH19-2) and four novel QTL(q SWPP2, q SWPP13, q SWPP17, and q SWPP19) were identified for plant height and seed weight per plant, respectively. Two pairs of QTL(q PH2/q SWPP2 and q PH17/q SWPP17) were also common for both plant height and seed weight per plant. These QTL and closely linked SLAF markers could be used to accelerate breeding for drought tolerant cultivars via MAS.

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