机构地区:[1]Soybean Research Institute/National Center for Soybean Improvement/MOA Key Laboratory for Biology and Genetic Improvement of Soybean(General)/National Key Laboratory for Crop Genetics and Germplasm Enhancement, Nanjing Agricultural University [2]State Key Lab of Plant Genomics, Institute of Genetics and Developmental Biology, the Chinese Academy of Sciences [3]BGI-Shenzhen, Beishan Industrial Zone [4]Department of Agronomy, Iowa State University,Ames
出 处:《Journal of Integrative Plant Biology》2014年第10期1009-1019,共11页植物学报(英文版)
基 金:supported by the National Basic Research Program of China (973 Program) (2011CB1093, 2010CB1259);the National High‐tech R&D Program (863 Program) (2011AA10A105, 2012AA101106);the National Natural Science Foundation of China (31071442, 31271750);the MOE 111 Project (B08025);the Program for Changjiang Scholars and Innovative Research Team in University (PCSIRT13073);NCET‐12‐0891;the Special Fund for Agro‐Scientific Research in Public Interest (200803060);the PAPD Project of Jiangsu Higher Education
摘 要:This study was designed to reveal the genome‐wide distribution of presence/absence variation(PAV) and to establish a database of polymorphic PAV markers in soybean. The 33 soybean whole‐genome sequences were compared to each other with that of Williams 82 as a reference genome. A total of 33,127 PAVs were detected and 28,912 PAV markers with their primer sequences were designed as the database NJAUSoyPAV_1.0. The PAVs scattered on whole genome while only 518(1.8%) overlapped with simple sequence repeats(SSRs) in BARCSOYSSR_1.0database. In a random sample of 800 PAVs, 713(89.13%) showed polymorphism among the 12 differential genotypes. Using 126 PAVs and 108 SSRs to test a Chinese soybean germplasm collection composed of 828 Glycine soja Sieb. et Zucc. and Glycine max(L.) Merr. accessions, the per locus allele number and its variation appeared less in PAVs than in SSRs. The distinctness among alleles/bands of PCR(polymerase chain reaction) products showed better in PAVs than in SSRs, potential in accurate marker‐assisted allele selection. The association mapping results showed SSR t PAV was more powerful than any single marker systems.The NJAUSoyPAV_1.0 database has enriched the source of PCR markers, and may fit the materials with a range of per locus allele numbers, if jointly used with SSR markers.This study was designed to reveal the genome‐wide distribution of presence/absence variation(PAV) and to establish a database of polymorphic PAV markers in soybean. The 33 soybean whole‐genome sequences were compared to each other with that of Williams 82 as a reference genome. A total of 33,127 PAVs were detected and 28,912 PAV markers with their primer sequences were designed as the database NJAUSoyPAV_1.0. The PAVs scattered on whole genome while only 518(1.8%) overlapped with simple sequence repeats(SSRs) in BARCSOYSSR_1.0database. In a random sample of 800 PAVs, 713(89.13%) showed polymorphism among the 12 differential genotypes. Using 126 PAVs and 108 SSRs to test a Chinese soybean germplasm collection composed of 828 Glycine soja Sieb. et Zucc. and Glycine max(L.) Merr. accessions, the per locus allele number and its variation appeared less in PAVs than in SSRs. The distinctness among alleles/bands of PCR(polymerase chain reaction) products showed better in PAVs than in SSRs, potential in accurate marker‐assisted allele selection. The association mapping results showed SSR t PAV was more powerful than any single marker systems.The NJAUSoyPAV_1.0 database has enriched the source of PCR markers, and may fit the materials with a range of per locus allele numbers, if jointly used with SSR markers.
关 键 词:Polymorphism presence/absence variation simple sequence repeat SOYBEAN whole‐genome sequence
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