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. 2023 Jan 23;9(2):153. doi: 10.3390/jof9020153

Table 1.

Characteristics of 55 polymorphic microsatellite markers developed in this study for population genetic diversity analysis of Bipolaris sorokiniana isolates.

Locus Forward Primer Sequence (5′-3′) Reverse Primer Sequence (5′-3′) Tm (°C) Allele Size (bp) Motif Repeat
BS-1 GGAGATGTGTGTCATGGTGC GGTCTTGATATTCCGTGTGCG 58 265 AGT 44
BS-2 ATGTCACTTCCGACTCCAGC TTTTGCTTCGGTTGCTTCGG 59 224 ACA 42
BS-3 TGAGATGGTTGCAAAGGGGG TCAACTCCATATTGCTTGGACC 60 243 AGA 34
BS-4 GTTCTTGTTCTGCAGGTGCG GAACAGCAGAGAAAAGGCGC 60 214 ACT 30
BS-5 CACAGATGCTTTATCGCGCG GCAACTGAAAACGGCAAATCC 60 183 GTA 24
BS-6 GATTTTGATCGAAGGGGCGG ACCTCATATGCGCACAAAAGG 59 157 TTC 24
BS-7 TGGATTTGTCGGAGTTGAATTGC TTTCCAACGGAAATTCGCGG 60 199 CTT 21
BS-8 TGAGGATGAGGTTGTTGCGG AACATACGCCCACCTCATCC 60 174 GAG 21
BS-9 CGGTTAGCCACAGCAAAGC TGTATTGTTCAAGCTGGCGC 59 153 TAG 20
BS-10 CAACATGCTCGTTACCGTGG TCACGCATCTAAGCAGCAGC 59 125 TAC 20
BS-11 GGAACCTACTCCGACGTTGC ATGTACAGACGCACGTCAGC 60 209 TGA 18
BS-12 ACGGGTAAATCATCGGTGCC TGGTGCAGGTATGAAGACGG 60 175 ACT 18
BS-13 TTGCTGCTGCCTTGTATTGC GCGTGCTGCAACAATGGG 59 130 ACT 18
BS-14 ACGAGTCCTTTTTACCACAGC ATCTGGCGTACTTTCCGTCC 58 177 GAA 17
BS-15 GACACACTCGACTCGATGCC CGCGAGGTTACTGGGATTGG 60 135 ACA 17
BS-16 AGATTATCAGGCCTCCACAGG CTCTCCAGGCACCAACCG 58 191 ATC 16
BS-17 ACACTCGCCTTTAGTTTGGC TGGTATGTCGTCCCAAAGCC 58 180 TTC 16
BS-18 TCCACCCCAATTCTATACTTACTACC TAATCAGAGGGGCAAAGGGC 59 209 TAG 15
BS-19 ACCGTCCTACCCAGATACCC TTGAGGATGGGGTGGGATCC 60 184 AGA 15
BS-20 TTGCCCATTGCTCGTTACCC GAGGGGTTTCAGCAGTAGGG 60 183 CTA 14
BS-21 AGGCTGAAGCTGACAAAGGC TTGGAGGAGAAGGAGGACGG 60 182 GAA 14
BS-22 CGAGCACACAGTCGTCTAGG TTGTTCGTTTTGCGTGTCGG 60 182 TCA 14
BS-23 AGGCATTCAGTCCGTTAGTCC CTTATTGCCGGCTGCTTACG 59 125 GTCA 16
BS-24 ATGTGGGAATACGGGGAAGG TTCAGCCAAGTCTCTTGTGC 59 205 AGAA 14
BS-25 AGACCATCTGTTGCCCAACC CAGACTGATTCCTTGTCGAGC 60 165 ATAC 14
BS-26 GCGTTTGCTTTCGATCGTCC AGGCTGGAGAGGAGAGTTGG 60 157 AAGA 12
BS-27 AGACATTGAGGCAGTCGTGG GGAAAACAGGCCGTTGTTGC 60 148 GGCT 12
BS-28 GACATCGTATCTGCCGTGGG AAAGCTGTCAAATTGCGGGC 60 174 TACA 11
BS-29 TCAAATGCAATGTATTCTCTACCCG CACGTCCCATAACGGATTGC 59 159 TCTT 11
BS-30 ACAACCTGCCACTATCACGG CCTAGTGGATGGGCAATGGG 60 169 CCAT 10
BS-31 TGCATCACTGTAAGCCCTGG TCCCAGCTTCAATGCCTTGG 60 167 CATA 10
BS-32 TTTTCTTTCTCTCCGCACGC GTCTTGGGGGTGGACAAGG 59 168 AGAA 9
BS-33 TTTTGATCGAGGTCTAACAGGC GCTCAATCGAGGAACTATGCC 58 168 CTTT 9
BS-34 GAATAGGGAGTGGACGAGAGC ACAAACGCTGCGTAGATTTCC 59 196 AAAG 8
BS-35 GATTGGGCCAGTTGAAACCG TGCCACCCTCCTCTACTACC 59 188 GGTT 8
BS-36 CTGGTAGCGGTAGTGGTAGC CTTGTAGAGAGGAGCCCTGC 59 158 GTGTA 16
BS-37 CGTTCATTTTCTCCGCCAGG TGGCATATGAATCCTGGGGG 59 165 AAAAG 12
BS-38 CATCAGCCAAACCGTTGACG TGTACTCTACACGGATGCATACG 60 176 ACTAC 9
BS-39 GCCCCTAGATGAGAACTCGC GCGAAATTTGCTGCAATCCC 59 178 TCGTG 8
BS-40 TCAGTATCTAGTGCGCACCC TGTGCATTGTTGTGCTGTCC 59 171 TGCCC 8
BS-41 CTTCCATACTAGTCGGTCCCC GGCAGGGCTTTCTTTTTGGG 59 178 CACTA 7
BS-42 GACTAGTACTGGGCGATGGC ACCAATCCTACTCGGCATGC 59 204 CGCAA 6
BS-43 CTGCCCTAGAGTAAGACGGC TGGAGTGTGTTGCTGCTAGG 59 166 CATCC 6
BS-44 CCTACCTCCTCCCACTACCC AAGTGATAGTGCGGGTGTGG 60 160 CCATC 6
BS-45 CCGTTCACATGCCGTAAACG CTGGGCGTGGTGTTTGTCG 60 151 CCATC 6
BS-46 CTTTGCATGTTCCTGACCCG CTTGCAACTCCAACATGGCC 59 259 AGCAGT 17
BS-47 TCGTCTACGCCACGAATAGC CCTCTAATGCGACGCGACG 59 249 TAGATG 11
BS-48 TCTAGGCGTAGAGTGCTCCC CCTGTCGAGCTGAAAATGCG 60 159 GCTCAT 10
BS-49 TTTCGCTGAAACTTGCTCGC TGAAGCCGAAGATGAGCAGG 60 121 TCCTGT 8
BS-50 GTATGGGGCAGACTGGTAGC CTCGTCCACGTCTACATCCC 59 199 TGCTGT 7
BS-51 CAAATGTCCGGCGATGTTGG GCTAACATGCAGCCAACACC 60 192 TGATTC 7
BS-52 TAGGACTTGTTGCGGCTAGG ACATGCTACACGGACACACC 59 179 ACCAGC 6
BS-53 TCCTTGTCCTTGTCCTTGTCC AGCCCTATGGTCACGAATGC 59 179 TTCTCT 6
BS-54 GGGCTGGACGAGTGATATGG TGCTGATACCGTTGCTGTCG 59 160 AGGAGC 6
BS-55 ATCTTTTCGTGCAGGGGAGG TCGATCCTCAAATAGCGCCC 60 158 TGTGGC 6