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Rice Science ›› 2015, Vol. 22 ›› Issue (4): 180-188.DOI: 10.1016/S1672-6308(14)60293-6

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  • 收稿日期:2014-09-23 接受日期:2015-02-11 出版日期:2015-07-28 发布日期:2015-05-27

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链接本文: http://www.ricesci.org/CN/10.1016/S1672-6308(14)60293-6

               http://www.ricesci.org/CN/Y2015/V22/I4/180

图/表 9

Table 1 Origins, codes and collected years of Northeast Asia weedy rice accessions used for SSR analysis.
Origin Code for each material a Year
Qingpu, Shanghai, China Qp-1, Qp-2, Qp-3, Qp-4, Qp-5 2008
Jiading, Shanghai, China Jd-1, Jd-2, Jd-3, Jd-4, Jd-5, Jd-6 2007
Nanhui, Shanghai, China Nh-1, Nh-2, Nh-3, Nh-4 2010
Pudong, Shanghai, China Pd-1, Pd-2, Pd-3, Pd-4, Pd-5 2009
Chongming, Shanghai, China Cm-1, Cm-2, Cm-3, Cm-4, Cm-5 2008
Fengxian, Shanghai, China Fx-1, Fx-2, Fx-3, Fx-4, Fx-5 2009
Taizhou, Jiangsu, China Tz-1, Tz-2, Tz-3, Tz-4, Tz-5 2005
Shenyang, Liaoning, China Sy-1, Sy-2, Sy-3, Sy-4, Sy-5 2000
Tieling, Liaoning, China Tl-1, Tl-2, Tl-3, Tl-4, Tl-5 2004
Haicheng, Liaoning, China Hc-1, Hc-2, Hc-3, Hc-4, Hc-5 2003
Dandong, Liaoning, China Dd-1, Dd-2, Dd-3, Dd-4, Dd-5 2004
Gongzhuling, Jilin, China Gz-1, Gz-2, Gz-3, Gz-4, Gz-5 2006
Jiamusi, Heilongjiang, China Jm-1, Jm-2, Jm-3, Jm-4, Jm-5 2005
Yesan, Chungcheong, Korea Ys-1, Ys-2, Ys-3, Ys-4, Ys-5 2000
Seosan, Chungcheong, Korea Ss-1, Ss-2, Ss-3, Ss-4, Ss-5, Ss-6 2000
Qp, Qingpu; Jd, Jiading; Nh, Nanhui; Pd, Pudong; Cm, Chongming; Fx, Fengxian; Tz, Taizhou; Sy, Shenyang; Tl, Tieling; Hc, Haicheng; Dd, Dandong; Gz, Gongzhuling; Jm, Jiamusi; Ys, Yesan; Ss, Seosan.
a The numbers represent weedy rice accessions from each location.

Table 1 Origins, codes and collected years of Northeast Asia weedy rice accessions used for SSR analysis.

Origin Code for each material a Year
Qingpu, Shanghai, China Qp-1, Qp-2, Qp-3, Qp-4, Qp-5 2008
Jiading, Shanghai, China Jd-1, Jd-2, Jd-3, Jd-4, Jd-5, Jd-6 2007
Nanhui, Shanghai, China Nh-1, Nh-2, Nh-3, Nh-4 2010
Pudong, Shanghai, China Pd-1, Pd-2, Pd-3, Pd-4, Pd-5 2009
Chongming, Shanghai, China Cm-1, Cm-2, Cm-3, Cm-4, Cm-5 2008
Fengxian, Shanghai, China Fx-1, Fx-2, Fx-3, Fx-4, Fx-5 2009
Taizhou, Jiangsu, China Tz-1, Tz-2, Tz-3, Tz-4, Tz-5 2005
Shenyang, Liaoning, China Sy-1, Sy-2, Sy-3, Sy-4, Sy-5 2000
Tieling, Liaoning, China Tl-1, Tl-2, Tl-3, Tl-4, Tl-5 2004
Haicheng, Liaoning, China Hc-1, Hc-2, Hc-3, Hc-4, Hc-5 2003
Dandong, Liaoning, China Dd-1, Dd-2, Dd-3, Dd-4, Dd-5 2004
Gongzhuling, Jilin, China Gz-1, Gz-2, Gz-3, Gz-4, Gz-5 2006
Jiamusi, Heilongjiang, China Jm-1, Jm-2, Jm-3, Jm-4, Jm-5 2005
Yesan, Chungcheong, Korea Ys-1, Ys-2, Ys-3, Ys-4, Ys-5 2000
Seosan, Chungcheong, Korea Ss-1, Ss-2, Ss-3, Ss-4, Ss-5, Ss-6 2000
Qp, Qingpu; Jd, Jiading; Nh, Nanhui; Pd, Pudong; Cm, Chongming; Fx, Fengxian; Tz, Taizhou; Sy, Shenyang; Tl, Tieling; Hc, Haicheng; Dd, Dandong; Gz, Gongzhuling; Jm, Jiamusi; Ys, Yesan; Ss, Seosan.
a The numbers represent weedy rice accessions from each location.
Table 2 List of cultivated rice collected in Northeast Asia used for SSR analysis.
Origin Code Accession name
Shanghai, China C-Sh Jinfeng, Youfeng, Hanfeng, Qiufeng
Jiangsu, China C-Js Xiushui 7, Xiushui 9, Xiushui 61, Xiushui 110, Wuyunjing 7, Wuyunjing 3, Zhendao 88
Liaoning, China C-Ln Liaojing 9, Liaojing 294, Liaojing 371, Liaoxing 15, Shendao 7
Chungcheong, Korea C-Cc Ilpum, Singeumo, Gopum, Dongjin 2, Yeon 308

Table 2 List of cultivated rice collected in Northeast Asia used for SSR analysis.

Origin Code Accession name
Shanghai, China C-Sh Jinfeng, Youfeng, Hanfeng, Qiufeng
Jiangsu, China C-Js Xiushui 7, Xiushui 9, Xiushui 61, Xiushui 110, Wuyunjing 7, Wuyunjing 3, Zhendao 88
Liaoning, China C-Ln Liaojing 9, Liaojing 294, Liaojing 371, Liaoxing 15, Shendao 7
Chungcheong, Korea C-Cc Ilpum, Singeumo, Gopum, Dongjin 2, Yeon 308
Fig. 1. Distribution of weedy rice populations sampled in Northeast Asia.

Fig. 1. Distribution of weedy rice populations sampled in Northeast Asia.

Table 3 Repeat mofitis, sequences and genetic diversity of SSR primers.
Primer Chr SSR motif Forward sequence Reverse sequence EPS Na Ne I
RM1 1 (GA)26 GCGAAAACACAATGCAAAAA GCGTTGGTTGGACCTGAC 113 6 2.721 1.250
RM9 1 (GA)15GT(GA)2 GGTGCCATTGTCGTCCTC ACGGCCCTCATCACCTTC 136 3 1.236 0.398
RM14 1 (GA)18 CCGAGGAGAGGAGTTCGAC GTGCCAATTTCCTCGAAAAA 191 4 2.416 1.041
RM23 1 (GA)15 CATTGGAGTGGAGGCTGG GTCAGGCTTCTGCCATTCTC 145 3 1.903 0.733
RM212 1 (CT)24 CCACTTTCAGCTACTACCAG CACCCATTTGTCTCTCATTATG 136 2 1.403 0.462
RM237 1 (CT)18 CAAATCCCGACTGCTGTCC TGGGAAGAGAGCACTACAGC 130 2 1.492 0.512
RM110 2 (GA)15 TCGAAGCCATCCACCAACGAAG TCCGTACGCCGACGAGGTCGAG 156 2 1.280 0.377
RM425 2 (CGG)9 CCAACGAAGATTCGAAGCTC CAGCACCATGAAGTCGCC 126 3 2.103 0.814
RM525 2 (AAG)12 GGCCCGTCCAAGAAATATTG CGGTGAGACAGAATCCTTACG 131 4 3.034 1.179
RM1178 2 (AG)13 CAGTGGGCGAGCATAGGAG ATCCTTTTCTCCCTCTCTCG 112 3 2.998 1.098
RM156 3 (CGG)8 GCCGCACCCTCACTCCCTCCTC TCTTGCCGGAGCGCTTGAGGTG 160 3 2.090 0.879
RM218 3 (TC)24ACT5(GT)11 TGGTCAAACCAAGGTCCTTC GACATACATTCTACCCCCGG 148 3 1.943 0.766
RM489 3 (ATA)8 ACTTGAGACGATCGGACACC TCACCCATGGATGTTGTCAG 271 4 2.175 0.893
RM8209 3 (AG)15 AGGAGAAGAGGAATCTTTGC CGATCGAGAGCTACTATTGC 188 3 1.043 0.117
RM241 4 (CT)31 GAGCCAAATAAGATCGCTGA TGCAAGCAGCAGATTTAGTG 138 2 1.729 0.613
RM470 4 (CTT)14 TCCTCATCGGCTTCTTCTTC AGAACCCGTTCTACGTCACG 83 4 3.406 1.297
RM567 4 (GA)21 ATCAGGGAAATCCTGAAGGG GGAAGGAGCAATCACCACTG 261 1 1.000 0.000
RM5473 4 (TC)20 ACACGGAGATCCGAGACACGAG CGAGATTAACGTCGTCCTC 105 5 4.117 1.493
RM31 5 (GA)15 GATCACGATCCACTGGAGCT AAGTCCATTACTCTCCTCCC 140 6 2.737 1.266
RM188 5 (CA)8 TCCGCCTCTCCTCTCGCTTCCC GCAACGCACAACCGAACCGAGC 210 3 2.283 0.924
RM430 5 (GA)25 AAACAACGACGTCCCTGATC GTGCCTCCGTGGTTATGAAC 173 5 2.922 1.217
RM193 6 (GCT)5 CGCCTCTTCTTCCTCGCCTCCG CGGGTCCATCCCCCCTCTCCTC 189 1 1.000 0.000
RM276 6 (AG)8A3(GA)33 CTCAACGTTGACACCTCGTG TCCTCCATCGAGCAGTATCA 149 4 2.113 0.960
RM402 6 (ATA)7 GAGCCATGGAAAGATGCATG TCAGCTGGCCTATGACAATG 133 3 1.321 0.487
RM469 6 (AG)15 AGCTGAACAAGCCCTGAAAG GACTTGGGCAGTGTGACATG 105 2 1.465 0.498
RM557 6 (AC)13 GTGGCGAGATCTATGTGGTG GCTTTGTGTGTGTGTGTGTG 211 1 1.000 0.000
RM234 7 (CT)25 ACAGTATCCAAGGCCCTGG CACGTGAGACAAAGACGGAG 156 2 1.729 0.613
RM346 7 (CTT)18 CGAGAGAGCCCATAACTACG ACAAGACGACGAGGAGGGAC 175 3 2.132 0.867
RM429 7 (TG)10 TCCCTCCAGCAATGTCTTTC CCTTCATCTTGCTTTCCACC 159 3 1.876 0.744
RM500 7 (AAG)9 GAGCTTGCCAGAGTGGAAAG GTTACACCGAGAGCCAGCTC 259 1 1.000 0.000
RM256 8 (CT)21 GACAGGGAGTGATTGAAGGC GTTGATTTCGCCAAGGGC 127 2 1.021 0.058
RM264 8 GA)27 GTTGCGTCCTACTGCTACTTC GATCCGTGTCGATGATTAGC 178 5 2.586 1.149
RM281 8 (GA)21 ACCAAGCATCCAGTGACCAG GTTCTTCATACAGTCCACATG 138 3 2.073 0.799
RM408 8 (CT)13 CAACGAGCTAACTTCCGTCC ACTGCTACTTGGGTAGCTGACC 128 3 2.014 0.783
RM515 8 (GA)11 TAGGACGACCAAAGGGTGAG TGGCCTGCTCTCTCTCTCTC 211 4 2.419 1.005
RM201 9 (CT)17 CTCGTTTATTACCTACAGTACC CTACCTCCTTTCTAGACCGATA 158 2 1.741 0.617
RM242 9 (CT)26 GGCCAACGTGTGTATGTCTC TATATGCCAAGACGGATGGG 225 3 1.916 0.807
RM257 9 (CT)24 CAGTTCCGAGCAAGAGTACTC GGATCGGACGTGGCATATG 147 4 3.504 1.314
RM566 9 (AG)15 ACCCAACTACGATCAGCTCG CTCCAGGAACACGCTCTTTC 239 3 1.879 0.802
RM216 10 (CT)18 GCATGGCCGATGGTAAAG TGTATAAAACCACACGGCCA 146 3 1.291 0.436
RM228 10 (CA)6(GA)36 CTGGCCATTAGTCCTTGG GCTTGCGGCTCTGCTTAC 154 7 4.632 1.693
RM484 10 (AT)9 TCTCCCTCCTCACCATTGTC TGCTGCCCTCTCTCTCTCTC 299 1 1.000 0.000
RM224 11 (AAG)8(AG)13 ATCGATCGATCTTCACGAGG TGCTATAAAAGGCATTCGGG 157 4 2.390 1.070
RM286 11 (GA)16 GGCTTCATCTTTGGCGAC CCGGATTCACGAGATAAACTC 110 4 2.484 1.066
RM17 12 (GA)21 TGCCCTGTTATTTTCTTCTCTC GGTGATCCTTTCCCATTTCA 184 3 1.349 0.495
RM101 12 (CT)37 GTGAATGGTCAAGTGACTTAGGTGGC ACACAACATGTTCCCTCCCATGC 324 3 2.563 1.001
RM277 12 (GA)11 CGGTCAAATCATCACCTGAC CAAGGCTTGCAAGGGAAG 124 2 1.929 0.675
RM1103 12 (AG)12 CAGCTGCTGCTACTACACCG CTACTCCACGTCCATGCATG 216 2 1.792 0.634
Chr, Chromosome; EPS, Expected PCR product size; Na, Observed number of alleles; Ne, Effective number of alleles; I, Shannon’s information index.

Table 3 Repeat mofitis, sequences and genetic diversity of SSR primers.

Primer Chr SSR motif Forward sequence Reverse sequence EPS Na Ne I
RM1 1 (GA)26 GCGAAAACACAATGCAAAAA GCGTTGGTTGGACCTGAC 113 6 2.721 1.250
RM9 1 (GA)15GT(GA)2 GGTGCCATTGTCGTCCTC ACGGCCCTCATCACCTTC 136 3 1.236 0.398
RM14 1 (GA)18 CCGAGGAGAGGAGTTCGAC GTGCCAATTTCCTCGAAAAA 191 4 2.416 1.041
RM23 1 (GA)15 CATTGGAGTGGAGGCTGG GTCAGGCTTCTGCCATTCTC 145 3 1.903 0.733
RM212 1 (CT)24 CCACTTTCAGCTACTACCAG CACCCATTTGTCTCTCATTATG 136 2 1.403 0.462
RM237 1 (CT)18 CAAATCCCGACTGCTGTCC TGGGAAGAGAGCACTACAGC 130 2 1.492 0.512
RM110 2 (GA)15 TCGAAGCCATCCACCAACGAAG TCCGTACGCCGACGAGGTCGAG 156 2 1.280 0.377
RM425 2 (CGG)9 CCAACGAAGATTCGAAGCTC CAGCACCATGAAGTCGCC 126 3 2.103 0.814
RM525 2 (AAG)12 GGCCCGTCCAAGAAATATTG CGGTGAGACAGAATCCTTACG 131 4 3.034 1.179
RM1178 2 (AG)13 CAGTGGGCGAGCATAGGAG ATCCTTTTCTCCCTCTCTCG 112 3 2.998 1.098
RM156 3 (CGG)8 GCCGCACCCTCACTCCCTCCTC TCTTGCCGGAGCGCTTGAGGTG 160 3 2.090 0.879
RM218 3 (TC)24ACT5(GT)11 TGGTCAAACCAAGGTCCTTC GACATACATTCTACCCCCGG 148 3 1.943 0.766
RM489 3 (ATA)8 ACTTGAGACGATCGGACACC TCACCCATGGATGTTGTCAG 271 4 2.175 0.893
RM8209 3 (AG)15 AGGAGAAGAGGAATCTTTGC CGATCGAGAGCTACTATTGC 188 3 1.043 0.117
RM241 4 (CT)31 GAGCCAAATAAGATCGCTGA TGCAAGCAGCAGATTTAGTG 138 2 1.729 0.613
RM470 4 (CTT)14 TCCTCATCGGCTTCTTCTTC AGAACCCGTTCTACGTCACG 83 4 3.406 1.297
RM567 4 (GA)21 ATCAGGGAAATCCTGAAGGG GGAAGGAGCAATCACCACTG 261 1 1.000 0.000
RM5473 4 (TC)20 ACACGGAGATCCGAGACACGAG CGAGATTAACGTCGTCCTC 105 5 4.117 1.493
RM31 5 (GA)15 GATCACGATCCACTGGAGCT AAGTCCATTACTCTCCTCCC 140 6 2.737 1.266
RM188 5 (CA)8 TCCGCCTCTCCTCTCGCTTCCC GCAACGCACAACCGAACCGAGC 210 3 2.283 0.924
RM430 5 (GA)25 AAACAACGACGTCCCTGATC GTGCCTCCGTGGTTATGAAC 173 5 2.922 1.217
RM193 6 (GCT)5 CGCCTCTTCTTCCTCGCCTCCG CGGGTCCATCCCCCCTCTCCTC 189 1 1.000 0.000
RM276 6 (AG)8A3(GA)33 CTCAACGTTGACACCTCGTG TCCTCCATCGAGCAGTATCA 149 4 2.113 0.960
RM402 6 (ATA)7 GAGCCATGGAAAGATGCATG TCAGCTGGCCTATGACAATG 133 3 1.321 0.487
RM469 6 (AG)15 AGCTGAACAAGCCCTGAAAG GACTTGGGCAGTGTGACATG 105 2 1.465 0.498
RM557 6 (AC)13 GTGGCGAGATCTATGTGGTG GCTTTGTGTGTGTGTGTGTG 211 1 1.000 0.000
RM234 7 (CT)25 ACAGTATCCAAGGCCCTGG CACGTGAGACAAAGACGGAG 156 2 1.729 0.613
RM346 7 (CTT)18 CGAGAGAGCCCATAACTACG ACAAGACGACGAGGAGGGAC 175 3 2.132 0.867
RM429 7 (TG)10 TCCCTCCAGCAATGTCTTTC CCTTCATCTTGCTTTCCACC 159 3 1.876 0.744
RM500 7 (AAG)9 GAGCTTGCCAGAGTGGAAAG GTTACACCGAGAGCCAGCTC 259 1 1.000 0.000
RM256 8 (CT)21 GACAGGGAGTGATTGAAGGC GTTGATTTCGCCAAGGGC 127 2 1.021 0.058
RM264 8 GA)27 GTTGCGTCCTACTGCTACTTC GATCCGTGTCGATGATTAGC 178 5 2.586 1.149
RM281 8 (GA)21 ACCAAGCATCCAGTGACCAG GTTCTTCATACAGTCCACATG 138 3 2.073 0.799
RM408 8 (CT)13 CAACGAGCTAACTTCCGTCC ACTGCTACTTGGGTAGCTGACC 128 3 2.014 0.783
RM515 8 (GA)11 TAGGACGACCAAAGGGTGAG TGGCCTGCTCTCTCTCTCTC 211 4 2.419 1.005
RM201 9 (CT)17 CTCGTTTATTACCTACAGTACC CTACCTCCTTTCTAGACCGATA 158 2 1.741 0.617
RM242 9 (CT)26 GGCCAACGTGTGTATGTCTC TATATGCCAAGACGGATGGG 225 3 1.916 0.807
RM257 9 (CT)24 CAGTTCCGAGCAAGAGTACTC GGATCGGACGTGGCATATG 147 4 3.504 1.314
RM566 9 (AG)15 ACCCAACTACGATCAGCTCG CTCCAGGAACACGCTCTTTC 239 3 1.879 0.802
RM216 10 (CT)18 GCATGGCCGATGGTAAAG TGTATAAAACCACACGGCCA 146 3 1.291 0.436
RM228 10 (CA)6(GA)36 CTGGCCATTAGTCCTTGG GCTTGCGGCTCTGCTTAC 154 7 4.632 1.693
RM484 10 (AT)9 TCTCCCTCCTCACCATTGTC TGCTGCCCTCTCTCTCTCTC 299 1 1.000 0.000
RM224 11 (AAG)8(AG)13 ATCGATCGATCTTCACGAGG TGCTATAAAAGGCATTCGGG 157 4 2.390 1.070
RM286 11 (GA)16 GGCTTCATCTTTGGCGAC CCGGATTCACGAGATAAACTC 110 4 2.484 1.066
RM17 12 (GA)21 TGCCCTGTTATTTTCTTCTCTC GGTGATCCTTTCCCATTTCA 184 3 1.349 0.495
RM101 12 (CT)37 GTGAATGGTCAAGTGACTTAGGTGGC ACACAACATGTTCCCTCCCATGC 324 3 2.563 1.001
RM277 12 (GA)11 CGGTCAAATCATCACCTGAC CAAGGCTTGCAAGGGAAG 124 2 1.929 0.675
RM1103 12 (AG)12 CAGCTGCTGCTACTACACCG CTACTCCACGTCCATGCATG 216 2 1.792 0.634
Chr, Chromosome; EPS, Expected PCR product size; Na, Observed number of alleles; Ne, Effective number of alleles; I, Shannon’s information index.
Table 4 Genetic characteristics of 76 weedy rice accessions in Northeast Asia by POPGENE according to 48 SSR markers.
Origin Na Ne I No P (%) Ho He Fis Fit Fst t
Qingpu (Qp), Shanghai, China 1.833 1.560 0.422 30 62.50 0.034 0.295 0.855 0.883 0.192 0.062
Jiading (Jd), Shanghai, China 1.458 1.300 0.228 15 31.25 0.000 0.155 1.000 1.000 0.230 0.000
Nanhui (Nh), Shanghai, China 1.458 1.309 0.261 21 43.75 0.010 0.202 0.871 0.940 0.538 0.031
Pudong (Pd), Shanghai, China 1.667 1.434 0.367 29 60.42 0.004 0.272 0.951 0.978 0.554 0.011
Chongming (Cm), Shanghai, China 1.458 1.313 0.259 20 41.67 0.013 0.193 0.911 0.934 0.257 0.034
Fengxian (Fx), Shanghai, China 1.708 1.416 0.365 29 60.42 0.050 0.262 0.708 0.785 0.263 0.120
Taizhou (Tz), Jiangsu, China 1.958 1.685 0.489 31 64.58 0.067 0.337 0.728 0.769 0.149 0.131
Shenyang (Sy), Liaoning, China 1.375 1.260 0.213 17 35.42 0.008 0.158 0.893 0.939 0.424 0.031
Tieling (Tl), Liaoning, China 1.500 1.334 0.270 20 41.67 0.004 0.195 0.963 0.976 0.340 0.012
Haicheng (Hc), Liaoning, China 1.500 1.308 0.266 21 43.75 0.004 0.193 0.972 0.980 0.282 0.010
Dandong (Dd), Liaoning, China 1.458 1.349 0.269 20 41.67 0.004 0.202 0.975 0.981 0.235 0.010
Gongzhuling (Gz), Jilin, China 1.292 1.218 0.168 12 25.00 0.000 0.124 1.000 1.000 0.241 0.000
Jiamusi (Jm), Heilongjiang, China 1.438 1.337 0.258 19 38.58 0.000 0.193 1.000 1.000 0.468 0.000
Yesan (Ys), Chungcheong, Korea 1.458 1.269 0.231 19 38.58 0.009 0.163 0.907 0.936 0.313 0.033
Seosan (Ss), Chungcheong, Korea 1.542 1.27 0.267 25 52.08 0.007 0.186 0.947 0.959 0.234 0.021
Overall 3.104 2.047 0.748 43 85.58 0.012 0.434 0.931 0.973 0.606 0.014
Na, Observed number of alleles; Ne, Effective number of alleles; I, Shannon’s diversity index; No, Number of polymorphic loci; P, Percentage of polymorphic loci; Ho, Observed heterozygosity; He, Expected heterozygosity; Fis, Fit and Fst, F-statistics of regional populations referred to Hartl and Clark (1989); t, outcrossing rate, t = (1 - Fit) / (1 + Fit).

Table 4 Genetic characteristics of 76 weedy rice accessions in Northeast Asia by POPGENE according to 48 SSR markers.

Origin Na Ne I No P (%) Ho He Fis Fit Fst t
Qingpu (Qp), Shanghai, China 1.833 1.560 0.422 30 62.50 0.034 0.295 0.855 0.883 0.192 0.062
Jiading (Jd), Shanghai, China 1.458 1.300 0.228 15 31.25 0.000 0.155 1.000 1.000 0.230 0.000
Nanhui (Nh), Shanghai, China 1.458 1.309 0.261 21 43.75 0.010 0.202 0.871 0.940 0.538 0.031
Pudong (Pd), Shanghai, China 1.667 1.434 0.367 29 60.42 0.004 0.272 0.951 0.978 0.554 0.011
Chongming (Cm), Shanghai, China 1.458 1.313 0.259 20 41.67 0.013 0.193 0.911 0.934 0.257 0.034
Fengxian (Fx), Shanghai, China 1.708 1.416 0.365 29 60.42 0.050 0.262 0.708 0.785 0.263 0.120
Taizhou (Tz), Jiangsu, China 1.958 1.685 0.489 31 64.58 0.067 0.337 0.728 0.769 0.149 0.131
Shenyang (Sy), Liaoning, China 1.375 1.260 0.213 17 35.42 0.008 0.158 0.893 0.939 0.424 0.031
Tieling (Tl), Liaoning, China 1.500 1.334 0.270 20 41.67 0.004 0.195 0.963 0.976 0.340 0.012
Haicheng (Hc), Liaoning, China 1.500 1.308 0.266 21 43.75 0.004 0.193 0.972 0.980 0.282 0.010
Dandong (Dd), Liaoning, China 1.458 1.349 0.269 20 41.67 0.004 0.202 0.975 0.981 0.235 0.010
Gongzhuling (Gz), Jilin, China 1.292 1.218 0.168 12 25.00 0.000 0.124 1.000 1.000 0.241 0.000
Jiamusi (Jm), Heilongjiang, China 1.438 1.337 0.258 19 38.58 0.000 0.193 1.000 1.000 0.468 0.000
Yesan (Ys), Chungcheong, Korea 1.458 1.269 0.231 19 38.58 0.009 0.163 0.907 0.936 0.313 0.033
Seosan (Ss), Chungcheong, Korea 1.542 1.27 0.267 25 52.08 0.007 0.186 0.947 0.959 0.234 0.021
Overall 3.104 2.047 0.748 43 85.58 0.012 0.434 0.931 0.973 0.606 0.014
Na, Observed number of alleles; Ne, Effective number of alleles; I, Shannon’s diversity index; No, Number of polymorphic loci; P, Percentage of polymorphic loci; Ho, Observed heterozygosity; He, Expected heterozygosity; Fis, Fit and Fst, F-statistics of regional populations referred to Hartl and Clark (1989); t, outcrossing rate, t = (1 - Fit) / (1 + Fit).
Table 5 Genetic distance (Nei, 1978) among weedy rice groups in Northeast Asia.
Origin Qp Jd Nh Pd Cm Fx Tz Sy Tl Hc Dd Gz Jm Ys
Jd 0.078
Nh 0.130 0.115
Pd 0.093 0.145 0.112
Cm 0.076 0.143 0.173 0.174
Fx 0.446 0.579 0.543 0.410 0.527
Tz 0.443 0.578 0.552 0.416 0.476 0.184
Sy 0.738 0.889 0.832 0.622 0.777 0.254 0.145
Tl 0.715 0.850 0.902 0.652 0.689 0.266 0.228 0.085
Hc 0.698 0.854 0.941 0.689 0.721 0.211 0.162 0.114 0.068
Dd 0.697 0.822 0.934 0.744 0.743 0.258 0.185 0.170 0.121 0.060
Gz 0.747 0.859 0.930 0.737 0.821 0.311 0.199 0.202 0.201 0.103 0.087
Jm 0.665 0.771 0.904 0.668 0.760 0.246 0.220 0.188 0.208 0.115 0.107 0.098
Ys 0.721 0.849 0.863 0.687 0.828 0.228 0.220 0.157 0.180 0.115 0.138 0.106 0.053
Ss 0.254 0.273 0.246 0.309 0.361 0.469 0.518 0.767 0.809 0.771 0.776 0.666 0.660 0.627
Qp, Qingpu, Shanghai, China; Jd, Jiading, Shanghai, China; Nh, Nanhui, Shanghai, China; Pd, Pudong, Shanghai, China; Cm, Chongming, Shanghai, China; Fx, Fengxian, Shanghai, China; Tz, Taizhou, Jiangsu, China; Sy, Shenyang, Liaoning, China; Tl, Tieling, Liaoning, China; Hc, Haicheng, Liaoning, China; Dd, Dandong, Liaoning, China; Gz, Gongzhuling, Jilin, China; Jm, Jiamusi, Heilongjiang, China; Ys, Yesan, Chungcheong, Korea; Ss, Seosan, Chungcheong, Korea.

Table 5 Genetic distance (Nei, 1978) among weedy rice groups in Northeast Asia.

Origin Qp Jd Nh Pd Cm Fx Tz Sy Tl Hc Dd Gz Jm Ys
Jd 0.078
Nh 0.130 0.115
Pd 0.093 0.145 0.112
Cm 0.076 0.143 0.173 0.174
Fx 0.446 0.579 0.543 0.410 0.527
Tz 0.443 0.578 0.552 0.416 0.476 0.184
Sy 0.738 0.889 0.832 0.622 0.777 0.254 0.145
Tl 0.715 0.850 0.902 0.652 0.689 0.266 0.228 0.085
Hc 0.698 0.854 0.941 0.689 0.721 0.211 0.162 0.114 0.068
Dd 0.697 0.822 0.934 0.744 0.743 0.258 0.185 0.170 0.121 0.060
Gz 0.747 0.859 0.930 0.737 0.821 0.311 0.199 0.202 0.201 0.103 0.087
Jm 0.665 0.771 0.904 0.668 0.760 0.246 0.220 0.188 0.208 0.115 0.107 0.098
Ys 0.721 0.849 0.863 0.687 0.828 0.228 0.220 0.157 0.180 0.115 0.138 0.106 0.053
Ss 0.254 0.273 0.246 0.309 0.361 0.469 0.518 0.767 0.809 0.771 0.776 0.666 0.660 0.627
Qp, Qingpu, Shanghai, China; Jd, Jiading, Shanghai, China; Nh, Nanhui, Shanghai, China; Pd, Pudong, Shanghai, China; Cm, Chongming, Shanghai, China; Fx, Fengxian, Shanghai, China; Tz, Taizhou, Jiangsu, China; Sy, Shenyang, Liaoning, China; Tl, Tieling, Liaoning, China; Hc, Haicheng, Liaoning, China; Dd, Dandong, Liaoning, China; Gz, Gongzhuling, Jilin, China; Jm, Jiamusi, Heilongjiang, China; Ys, Yesan, Chungcheong, Korea; Ss, Seosan, Chungcheong, Korea.
Fig. 2. Unrooted neighbor-joining tree of 15 weedy rice groups and 4 cultivated rice groups by POPGENE, based on a matrix of the inferred genetic diversity. W, Weedy rice; C, Cultivar rice; Qp, Qingpu, Shanghai, China; Jd, Jiading, Shanghai, China; Nh, Nanhui, Shanghai, China; Pd, Pudong, Shanghai, China; Cm, Chongming, Shanghai, China; Fx, Fengxian, Shanghai, China; Tz, Taizhou, Jiangsu, China; Sy, Shenyang, Liaoning, China; Tl, Tieling, Liaoning, China; Hc, Haicheng, Liaoning, China; Dd, Dandong, Liaoning, China; Gz, Gongzhuling, Jilin, China; Jm, Jiamusi, Heilongjiang, China; Ys, Yesan, Chungcheong, Korea; Ss, Seosan, Chungcheong, Korea.

Fig. 2. Unrooted neighbor-joining tree of 15 weedy rice groups and 4 cultivated rice groups by POPGENE, based on a matrix of the inferred genetic diversity. W, Weedy rice; C, Cultivar rice; Qp, Qingpu, Shanghai, China; Jd, Jiading, Shanghai, China; Nh, Nanhui, Shanghai, China; Pd, Pudong, Shanghai, China; Cm, Chongming, Shanghai, China; Fx, Fengxian, Shanghai, China; Tz, Taizhou, Jiangsu, China; Sy, Shenyang, Liaoning, China; Tl, Tieling, Liaoning, China; Hc, Haicheng, Liaoning, China; Dd, Dandong, Liaoning, China; Gz, Gongzhuling, Jilin, China; Jm, Jiamusi, Heilongjiang, China; Ys, Yesan, Chungcheong, Korea; Ss, Seosan, Chungcheong, Korea.

Fig. 4. Two-dimention principle analysis in 96 accessions for Northeast Asia. W, Weedy rice; C, Cultivar rice; Qp, Qingpu, Shanghai, China; Jd, Jiading, Shanghai, China; Nh, Nanhui, Shanghai, China; Pd, Pudong, Shanghai, China; Cm, Chongming, Shanghai, China; Fx, Fengxian, Shanghai, China; Tz, Taizhou, Jiangsu, China; Sy, Shenyang, Liaoning, China; Tl, Tieling, Liaoning, China; Hc, Haicheng, Liaoning, China; Dd, Dandong, Liaoning, China; Gz, Gongzhuling, Jilin, China; Jm, Jiamusi, Heilongjiang, China; Ys, Yesan, Chungcheong, Korea; Ss, Seosan, Chungcheong, Korea.

Fig. 4. Two-dimention principle analysis in 96 accessions for Northeast Asia. W, Weedy rice; C, Cultivar rice; Qp, Qingpu, Shanghai, China; Jd, Jiading, Shanghai, China; Nh, Nanhui, Shanghai, China; Pd, Pudong, Shanghai, China; Cm, Chongming, Shanghai, China; Fx, Fengxian, Shanghai, China; Tz, Taizhou, Jiangsu, China; Sy, Shenyang, Liaoning, China; Tl, Tieling, Liaoning, China; Hc, Haicheng, Liaoning, China; Dd, Dandong, Liaoning, China; Gz, Gongzhuling, Jilin, China; Jm, Jiamusi, Heilongjiang, China; Ys, Yesan, Chungcheong, Korea; Ss, Seosan, Chungcheong, Korea.

Fig. 3. Cluster diagram of 76 weedy rice and 20 rice accessions in Northeast Asia based on the genetic distance derived from 48 SSR markers, using Nei’s unbiased genetic distance coefficients (Nei, 1978). C, Cultivar rice; Qp, Qingpu, Shanghai, China; Jd, Jiading, Shanghai, China; Nh, Nanhui, Shanghai, China; Pd, Pudong, Shanghai, China; Cm, Chongming, Shanghai, China; Fx, Fengxian, Shanghai, China; Tz, Taizhou, Jiangsu, China; Sy, Shenyang, Liaoning, China; Tl, Tieling, Liaoning, China; Hc, Haicheng, Liaoning, China; Dd, Dandong, Liaoning, China; Gz, Gongzhuling, Jilin, China; Jm, Jiamusi, Heilongjiang, China; Ys, Yesan, Chungcheong, Korea; Ss, Seosan, Chungcheong, Korea.

Fig. 3. Cluster diagram of 76 weedy rice and 20 rice accessions in Northeast Asia based on the genetic distance derived from 48 SSR markers, using Nei’s unbiased genetic distance coefficients (Nei, 1978). C, Cultivar rice; Qp, Qingpu, Shanghai, China; Jd, Jiading, Shanghai, China; Nh, Nanhui, Shanghai, China; Pd, Pudong, Shanghai, China; Cm, Chongming, Shanghai, China; Fx, Fengxian, Shanghai, China; Tz, Taizhou, Jiangsu, China; Sy, Shenyang, Liaoning, China; Tl, Tieling, Liaoning, China; Hc, Haicheng, Liaoning, China; Dd, Dandong, Liaoning, China; Gz, Gongzhuling, Jilin, China; Jm, Jiamusi, Heilongjiang, China; Ys, Yesan, Chungcheong, Korea; Ss, Seosan, Chungcheong, Korea.

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36 (Managing Editor: Fang Hongmin)

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