Scientia Silvae Sinicae ›› 2023, Vol. 59 ›› Issue (10): 113-127.doi: 10.11707/j.1001-7488.LYKX20230052
• Research papers • Previous Articles Next Articles
Zhengkang Xu(),Xiaogang Dai,Yingnan Chen*(
)
Received:
2023-02-10
Online:
2023-10-25
Published:
2023-11-01
Contact:
Yingnan Chen
E-mail:347499992@qq.com;chenyingnan@njfu.edu.cn
CLC Number:
Zhengkang Xu,Xiaogang Dai,Yingnan Chen. Preliminary Study of Genome-Wide Development and Initial Application of SSR Primers in Magnolia biondii[J]. Scientia Silvae Sinicae, 2023, 59(10): 113-127.
Table 1
Information of 26 commercial Magnolia cultivars"
样品 编号 Sample No. | 品种名 Cultivar name | 拉丁名 Latin name | 花色特征 Flower color | 品种权号 Variety right number |
1 | ‘日出’ | M.‘Sunrise’ | 花瓣红黄复色 Dual-colored ‘red+yellow’ petals | — |
2 | ‘黄鸟’ | M. acuminate‘Yellow Bird’ | 花亮黄色,基部略绿,花色最黄的玉兰品种之一 Bright yellow flowers, slightly green at base, one of the most yellow varieties of Magnolia | — |
3 | ‘娇红2号’ | M. wufengensis‘Jiaohong 2’ | 花两面均为深红色,腹面颜色略淡 The petal color appears deep red in both surfaces with slightly lighter in the ventral surface | 20140050 |
4 | ‘绿星’ | M. concinna‘Green star’ | 花初开绿色,后转为白色,外面基部约1/3紫红色 Flowers are green at first, then turn white, and one-third of the out surfaces are purplish-red at base | 20120023 |
5 | ‘粉荷星花’ | M. stellate‘Fenhe’ | 花型星芒状,淡粉色或白色 Stellate flowers, pale pink or white | — |
6 | ‘玉灯’ | M. denudate ‘Lamp’ | 花色洁白 Clearly white flowers | — |
7 | ‘红笑星’ | M.‘Star’ | 花深玫红色 Deep carmine-red flowers | 20080015 |
8 | ‘大花红玉兰’ | M. wufengensis‘Dahua’ | 花紫红色 Purplish-red flowers | — |
9 | ‘红玉映天’ | M.‘Hongyuyintian’ | 花瓣外表面基部呈玫红色,上部呈淡粉红色 Outside surface of the petal is carmine-red at base and pale pink in upper part | 20190212 |
10 | ‘玉玲珑’ | M.‘Yulinglong’ | 花色洁白 Clearly white flowers | 20210045 |
11 | ‘红吉星’ | M.‘Red Lucky’ | 花鲜红色,2次花颜色略淡 The flower color is bright red and becomes lightly light in the secondary flowering | 20120090 |
12 | ‘红运’ | M. soulangeana‘Hongyun’ | 花瓣由外到里呈紫红、深红、淡红至白色 From outside to inside, the petal color ranges from purple, deep red, light red to white | 20000007 |
13 | ‘苏珊’ | M.‘Susan’ | 花紫红色 Purplish-red flowers | — |
14 | ‘埃及艳后’ | M.‘Cleopatra’ | 花紫红色 Purplish-red flowers | — |
15 | ‘桃实’ | M. biondii‘Ovata’ | 群瓣状花被片白色,外面中、基部具不同程度紫色或浅紫红色 Petaloid tepals white and the out surface of tepal is to different degrees purple or light purplish-red from base to middle | — |
16 | ‘紫辰’ | M.‘Zi Chen’ | 花桃红色 Peach-colored flowers | 20190048 |
17 | ‘金色池塘’ | M.‘Gold pond’ | 花淡黄色带微粉色 Pale yellow flowers with slightly pink | — |
18 | 黄山玉兰 | M. cylindrica | 外轮花被黄绿色,中内两轮白色,基部常红色 The outer tepals are greenish yellow, the middle and inner tepals are white with red base | — |
19 | 腋花玉兰 | M. axilliflora | 花被片外轮浅黄绿色,内轮基部深红色红度渐减,至上部边缘及近白色 The outer tepals are pale greenish yellow, and the color of inner tepals is deep red at base grading to almost white at apex | — |
20 | ‘娇红1号’ | M. wufengensis‘Jiaohong 1’ | 内外瓣花w色纯红,花色艳丽Both the inner and outer petals are pure red, and the coloration is brilliant | 20120073 |
21 | ‘丹馨’ | M. soulangeana‘Danxin’ | 花色鲜红Bright red flowers | 20000004 |
22 | ‘詹妮’ | M.‘Genie’ | 花深红色 Deep red flowers | — |
23 | ‘红宝石’ | M.‘Rustica Rubra’ | 花深粉色,内里乳白色 Deep pink flowers with creamy white inside | — |
24 | ‘小店佳粉’ | M.‘Xiaodianjiafen’ | 即开时花蕾颜色为粉紫色 The floral buds are pinkish-purple when they are near blooming | 20190138 |
25 | ‘林奈’ | M. soulangiana‘Lennei’ | 花紫红色 Purplish-red flowers | — |
26 | ‘飞燕迎春’ | M.‘Feiyanyingchun’ | 花粉红色 Pink flowers | 20210681 |
Table 2
Type, number and ratio of SSRs in the genome of M. biondii"
重复次数 Repeat number | 重复类型Repeat type | 总计 Total | 比例 Ratio (%) | |||||
单核苷酸 Mononucleotide | 二核苷酸 Dinucleotide | 三核苷酸 Trinucleotide | 四核苷酸 Tetranucleotide | 五核苷酸 Pentanucleotide | 六核苷酸 Hexanucleotide | |||
2 | 1 604 018 | 1 604 018 | 56.87 | |||||
3 | 168 180 | 65 226 | 120 955 | 354 361 | 12.56 | |||
4 | 86 965 | 33 551 | 10 286 | 21 695 | 152 497 | 5.41 | ||
5 | 29 621 | 9 776 | 2 397 | 4 296 | 46 090 | 1.63 | ||
6 | 57 568 | 14 853 | 2 552 | 708 | 1 047 | 76 728 | 2.72 | |
7 | 41 854 | 7 912 | 783 | 258 | 232 | 51 039 | 1.81 | |
8 | 34 918 | 4 686 | 274 | 79 | 62 | 40 019 | 1.42 | |
9 | 25 042 | 2 860 | 119 | 30 | 24 | 28 075 | 1 | |
10 | 17 130 | 1 941 | 43 | 8 | 8 | 19 130 | 0.68 | |
11 | 12 450 | 1 277 | 22 | 8 | 4 | 13 761 | 0.49 | |
12~25 | 254 521 | 96 528 | 2 886 | 30 | 2 | 3 | 353 970 | 12.55 |
>25 | 27 028 | 53 564 | 23 | 80 615 | 2.86 | |||
总计 Total | 281 549 | 339 054 | 153 024 | 215 330 | 79 002 | 1 752 344 | 2 820 303 | 100 |
比例 Ratio (%) | 9.98 | 12.02 | 5.43 | 7.63 | 2.8 | 62.13 | 100 |
Table 3
Polymorphic and discrimination power analysis of the 10 pairs of primers"
引物编码 Primer code | 引物名称 Primer name | 引物序列(5′–3′) Primer sequence(5′–3′) | 基因型数 Number of genotypes | 等位基因数 Number of alleles | PIC 值 PIC value | 鉴别力 Discrimination power |
A | Chr02-1 | F: ATTGGAGCTTGGCTTGTTTG R: GGGCCACGTTAGATTTTTCA | 6 | 8 | 0.652 | 1 |
B | Chr06-10 | F: CAAGCTGGCCTCTTTTGTCT R: TGCATTCATCATATTCAGCCTC | 18 | 12 | 0.868 | 13 |
C | Chr08-5 | F: AGATTGGCGTCCTCAATAGG R: AGTCCTGCAACAGCTCCACT | 4 | 3 | 0.420 | 0 |
D | Chr09-2 | F: GGATCGTCCAATTAGCAGACA R: TCTGAGTTGACCAGCTGACG | 8 | 7 | 0.743 | 2 |
E | Chr10-7 | F: TGGAGTCTATTAAGACTATGGC R: CGAAAGCCTATCTCGGATCA | 6 | 7 | 0.783 | 1 |
F | Chr13-5 | F: TTCCCTTTTTGCAGTTCGAG R: GCCCTCTATAGATACGGCCTG | 4 | 6 | 0.701 | 0 |
G | Chr16-5 | F: CCCTTTCCTCTTCCGACTTT R: CACATTTGCTCACGAACACC | 10 | 10 | 0.869 | 3 |
H | Chr17-22 | F: GTTCAAGTCGGGTCGAGGTA R: TGGGTTTAGTCGTTCTTGGG | 7 | 6 | 0.882 | 2 |
I | Chr18-17 | F: TCCATGGACGACCACAGTTA R: GCCGGGACTGCTTTTACTTA | 7 | 8 | 0.805 | 3 |
J | Chr19-6 | F: CAGGAACGTCCAGCTTCTCT R: AAATTTCAATGGTCTCGGCA | 12 | 18 | 0.862 | 8 |
平均Mean | 8.2 | 8.5 | 0.759 | 3.3 |
Table 4
Fingerprints of 26 Magnolia cultivars"
样品 编号 Sample No. | 品种名(拉丁名) Cultivar name (Latin name) | 指纹编码 Fingerprint | 二维码 Two-dimensional code |
1 | ‘日出’ (M.‘Sunrise’) | A91-117-128B103-109-115-280C121D154-236E145F125G92-108-119H111-114I154-157J154-157 | ![]() |
2 | ‘黄鸟’ (M. acuminate‘Yellow Bird’) | A117-128-133B103-115C121D154-157E97-162F125G92H111-114I104J125 | ![]() |
3 | ‘娇红2号’ (M. wufengensis‘Jiaohong 2’) | A117-128B106-124-130-152C108-121D154-236E139-172-174F156G102- 300H111-114I108J118-122 | ![]() |
4 | ‘绿星’ (M. concinna‘Green star’) | A117-128B106-112C112-121D154-236E145F125G232H103-111-114I154-157J112-118-125-215 | ![]() |
5 | ‘粉荷星花’ (M. stellate ‘Fenhe’) | A117-128-235B118C121D135-137E97-162F125G111-300H103-111-114I100-113J118-125-142 | ![]() |
6 | ‘玉灯’ (M. denudate ‘Lamp’) | A117-128B109-115-124-130C121D137E139-172-174F98-107-177G117H111- 114I108J110-118-184-269 | ![]() |
7 | ‘红笑星’ (M.‘Star’) | A117-133B109C108D135-137E172-174F224G117H111-114I100-108-113J110-114-122-125 | ![]() |
8 | ‘大花红玉兰’ (M. wufengensis‘Dahua’) | A117-128B109-152C121D135-137E118F125G92-108-119H111-114I154-157J154-157 | ![]() |
9 | ‘红玉映天’ (M. ‘Hongyuyintian’) | A112-117-128B109C108-121D113-154-157E145F125G102-300H103-111-114I154-235J118-122 | ![]() |
10 | ‘玉玲珑’ (M.‘Yulinglong’) | A117-128B109C112-121D154-157E172-174F98-107-177G232H103-111-114I154-235J154-157 | ![]() |
11 | ‘红吉星’ (M. ‘Red Lucky’) | A117-133B109C121D137-157E162F125G117H149I154-235J154-157 | ![]() |
12 | ‘红运’ (M. soulangeana‘Hongyun’) | A117-128B109-112-152C108-121D135-137E145F125G117H114-149I154-235J154-157 | ![]() |
13 | ‘苏珊’ (M.‘Susan’) | A117-128B118C121D135-137E118F224G302H103-149I154-235J119-133-215 | ![]() |
14 | ‘埃及艳后’ (M.‘Cleopatra’) | A117-128B112-280C121D135-137E139-172-174F224G102-117H114-134I108J119-133-215 | ![]() |
15 | ‘桃实’ (M. biondii‘Ovata’) | A117-123-128-187B120-124C121D135-137E97-162F125G185H89-149I108J119-133-215 | ![]() |
16 | ‘紫辰’ (M. ‘Zi Chen’) | A112-128B106C112-121D135-137E97-162F156G102H149I118J133-215 | ![]() |
17 | ‘金色池塘’ (M. ‘Gold pond’) | A117-128B103-109-120C121D135-137E118F125G92H103-111-114I108J119-133-215 | ![]() |
18 | 黄山玉兰 (M. cylindrica) | A117-128B120-158C121D132E145F125G102-117H103-111-114I108J119-133-215 | ![]() |
19 | 腋花玉兰 (M. axilliflora) | A117-123-128-187B124C121D132E118F98-107-177G102H149I154-235J119-133-215 | ![]() |
20 | ‘娇红1号’ (M. wufengensis‘Jiaohong 1’) | A112-117-128B120-124C108-121D137E145F224G117H114-149I154-235J133-215 | ![]() |
21 | ‘丹馨’ (M. soulangeana‘Danxin’) | A112-128-133B115-120C121D135-137E145F125G92-108-119H103-149I154-235J119-133-215 | ![]() |
22 | ‘詹妮’ (M. ‘Genie’) | A117-128B112C121D154-157E145F125G117H111-114I154-235J133-215 | ![]() |
23 | ‘红宝石’ (M.‘Rustica Rubra’) | A117-133B115-120C108-121D135-137E139-172-174F98-107-177G102H149I154-235J119-215 | ![]() |
24 | ‘小店佳粉’ (M.‘Xiaodianjiafen’) | A117-128B109-120C121D137-154E162F125G92-108-119H111-114I118J119-133-215 | ![]() |
25 | ‘林奈’ (M. soulangiana‘Lennei’) | A112-117-128B118C121D154-236E118F156G117H111-114I118J110-114-125-137 | ![]() |
26 | ‘飞燕迎春’ (M. ‘Feiyanyingchun’) | A117-123-128-187B124C121D154-236E118F98-107-177G102H111-114I108J119-124-135-139 | ![]() |
Table 1
The type and number of SSR repeat motifs in the M. biondii genome"
重复基序类型 Repeat type | 数量 Number | 重复基序类型 Repeat type | 数量 Number | 重复基序类型 Repeat type | 数量 Number | ||
A/T | 243 335 | AAACCG/CGGTTT | 2 083 | ACAGAG/CTCTGT | 1 553 | ||
C/G | 38 214 | AAACCT/AGGTTT | 464 338 | ACAGAT/ATCTGT | 1 868 | ||
AC/GT | 41 152 | AAACGC/CGTTTG | 295 | ACAGCC/CTGTGG | 641 | ||
AG/CT | 166 489 | AAACGG/CCGTTT | 1 096 | ACAGCG/CGCTGT | 138 | ||
AT/AT | 130 648 | AAACGT/ACGTTT | 691 | ACAGCT/AGCTGT | 624 | ||
CG/CG | 765 | AAACTC/AGTTTG | 9 954 | ACAGGC/CCTGTG | 387 | ||
AAC/GTT | 8 976 | AAACTG/AGTTTC | 4 595 | ACAGGG/CCCTGT | 596 | ||
AAG/CTT | 47 939 | AAACTT/AAGTTT | 11 453 | ACAGGT/ACCTGT | 444 | ||
AAT/ATT | 50 530 | AAAGAC/CTTTGT | 3 342 | ACAGTC/ACTGTG | 694 | ||
ACC/GGT | 6 295 | AAAGAG/CTCTTT | 17 639 | ACAGTG/ACTGTC | 968 | ||
ACG/CGT | 791 | AAAGAT/ATCTTT | 5 784 | ACATAG/ATGTCT | 999 | ||
ACT/AGT | 958 | AAAGCC/CTTTGG | 1 357 | ACATAT/ATATGT | 8 972 | ||
AGC/CTG | 9 646 | AAAGCG/CGCTTT | 400 | ACATCC/ATGTGG | 3 161 | ||
AGG/CCT | 5 227 | AAAGCT/AGCTTT | 2 134 | ACATCG/ATGTCG | 819 | ||
ATC/ATG | 22 407 | AAAGGC/CCTTTG | 1 606 | ACATCT/AGATGT | 1 521 | ||
CCG/CGG | 255 | AAAGGG/CCCTTT | 3 938 | ACATGC/ATGTGC | 6 768 | ||
AAAC/GTTT | 7 624 | AAAGGT/ACCTTT | 1 650 | ACATGG/ATGTCC | 2 470 | ||
AAAG/CTTT | 28 531 | AAAGTC/ACTTTG | 1 778 | ACATGT/ACATGT | 2 529 | ||
AAAT/ATTT | 70 162 | AAAGTG/ACTTTC | 2 921 | ACCACG/CGTGGT | 1 976 | ||
AACC/GGTT | 2 598 | AAAGTT/AACTTT | 2 093 | ACCACT/AGTGGT | 1 065 | ||
AACG/CGTT | 155 | AAATAC/ATTTGT | 5 654 | ACCAGC/CTGGTG | 1 064 | ||
AACT/AGTT | 1 493 | AAATAG/ATTTCT | 7 343 | ACCAGG/CCTGGT | 354 | ||
AAGC/CTTG | 1 846 | AAATAT/ATATTT | 14 644 | ACCAGT/ACTGGT | 963 | ||
AAGG/CCTT | 3 069 | AAATCC/ATTTGG | 16 978 | ACCATC/ATGGTG | 5 961 | ||
AAGT/ACTT | 355 | AAATCG/ATTTCG | 4 202 | ACCATG/ATGGTC | 1 720 | ||
AATC/ATTG | 16 854 | AAATCT/AGATTT | 8 265 | ACCCAG/CTGGGT | 1 707 | ||
AATG/ATTC | 19 663 | AAATGC/ATTTGC | 5 013 | ACCCAT/ATGGGT | 1 442 | ||
AATT/AATT | 4 169 | AAATGG/ATTTCC | 5 858 | ACCCCC/GGGGGT | 2 497 | ||
ACAG/CTGT | 463 | AAATGT/ACATTT | 5 012 | ACCCCG/CGGGGT | 713 | ||
ACAT/ATGT | 8 460 | AAATTC/AATTTG | 11 507 | ACCCCT/AGGGGT | 657 | ||
ACCC/GGGT | 1 797 | AAATTG/AATTTC | 10 914 | ACCCGC/CGGGTG | 575 | ||
ACCG/CGGT | 159 | AAATTT/AAATTT | 7 701 | ACCCGG/CCGGGT | 830 | ||
ACCT/AGGT | 396 | AACAAG/CTTGTT | 3 664 | ACCCGT/ACGGGT | 194 | ||
ACGC/CGTG | 1 218 | AACAAT/ATTGTT | 4 796 | ACCCTC/AGGGTG | 1 489 | ||
ACGG/CCGT | 1 121 | AACACC/GGTGTT | 1 957 | ACCCTG/AGGGTC | 778 | ||
ACGT/ACGT | 187 | AACACG/CGTGTT | 275 | ACCGAG/CGGTCT | 2 245 | ||
ACTC/AGTG | 1 986 | AACACT/AGTGTT | 1 025 | ACCGAT/ATCGGT | 3 342 | ||
ACTG/AGTC | 379 | AACAGC/CTGTTG | 2 059 | ACCGCC/CGGTGG | 482 | ||
AGAT/ATCT | 1 819 | AACAGG/CCTGTT | 868 | ACCGCG/CGCGGT | 406 | ||
AGCC/CTGG | 345 | AACAGT/ACTGTT | 1 330 | ACCGCT/AGCGGT | 240 | ||
AGCG/CGCT | 343 | AACATC/ATGTTG | 5 928 | ACCGGC/CCGGTG | 216 | ||
AGCT/AGCT | 526 | AACATG/ATGTTC | 4 301 | ACCGGG/CCCGGT | 130 | ||
AGGC/CCTG | 269 | AACATT/AATGTT | 3 257 | ACCGGT/ACCGGT | 161 | ||
AGGG/CCCT | 5 726 | AACCAC/GGTTGT | 4 765 | ACCGTC/ACGGTG | 363 | ||
ATCC/ATGG | 23 121 | AACCAG/CTGGTT | 3 972 | ACCGTG/ACGGTC | 2 307 | ||
ATCG/ATCG | 1 879 | AACCAT/ATGGTT | 3 939 | ACCTAG/AGGTCT | 1 113 | ||
ATGC/ATGC | 8 154 | AACCCC/GGGGTT | 1 688 | ACCTAT/AGGTAT | 4 776 | ||
CCCG/CGGG | 423 | AACCCG/CGGGTT | 42 739 | ACCTCC/AGGTGG | 3 107 | ||
CCGG/CCGG | 40 | AACCCT/AGGGTT | 23 796 | ACCTCG/AGGTCG | 1 847 | ||
AAAAC/GTTTT | 3 835 | AACCGC/CGGTTG | 325 | ACCTCT/AGAGGT | 1 872 | ||
AAAAG/CTTTT | 11 687 | AACCGG/CCGGTT | 2 183 | ACCTGC/AGGTGC | 1 252 | ||
AAAAT/ATTTT | 21 301 | AACCGT/ACGGTT | 241 | ACCTGG/AGGTCC | 1 705 | ||
AAACC/GGTTT | 374 | AACCTC/AGGTTG | 2 987 | ACGACT/AGTCGT | 762 | ||
AAACG/CGTTT | 15 | AACCTG/AGGTTC | 2 672 | ACGAGC/CGTGCT | 405 | ||
AAACT/AGTTT | 352 | AACCTT/AAGGTT | 74 255 | ACGAGG/CCTCGT | 1 191 | ||
AAAGC/CTTTG | 58 | AACGAC/CGTTGT | 708 | ACGAGT/ACTCGT | 2 344 | ||
AAAGG/CCTTT | 573 | AACGAG/CGTTCT | 302 | ACGATC/ATCGTG | 648 | ||
AAAGT/ACTTT | 27 | AACGAT/ATCGTT | 1 444 | ACGATG/ATCGTC | 1 436 | ||
AAATC/ATTTG | 652 | AACGCC/CGTTGG | 192 | ACGCAG/CGTCTG | 151 | ||
AAATG/ATTTC | 821 | AACGCG/CGCGTT | 59 | ACGCAT/ATGCGT | 663 | ||
AAATT/AATTT | 1 623 | AACGCT/AGCGTT | 240 | ACGCCC/CGTGGG | 1 560 | ||
AACAC/GTGTT | 114 | AACGGC/CCGTTG | 387 | ACGCCG/CGGCGT | 273 | ||
AACAG/CTGTT | 29 | AACGGG/CCCGTT | 207 | ACGCCT/AGGCGT | 87 | ||
AACAT/ATGTT | 170 | AACGGT/ACCGTT | 2 748 | ACGCGC/CGCGTG | 829 | ||
AACCC/GGGTT | 4 417 | AACGTC/ACGTTG | 284 | ACGCGG/CCGCGT | 370 | ||
AACCG/CGGTT | 618 | AACGTG/ACGTTC | 357 | ACGCGT/ACGCGT | 25 | ||
AACCT/AGGTT | 1 562 | AACGTT/AACGTT | 106 | ACGCTC/AGCGTG | 202 | ||
AACGC/CGTTG | 11 | AACTAC/AGTTGT | 2 184 | ACGCTG/AGCGTC | 220 | ||
AACGG/CCGTT | 16 | AACTAG/AGTTCT | 19 644 | ACGGAG/CCGTCT | 423 | ||
AACGT/ACGTT | 3 | AACTAT/AGTTAT | 2 634 | ACGGAT/ATCCGT | 2 717 | ||
AACTC/AGTTG | 608 | AACTCC/AGTTGG | 2 284 | ACGGCC/CCGTGG | 386 | ||
AACTG/AGTTC | 64 | AACTCG/AGTTCG | 4 188 | ACGGCG/CCGTCG | 339 | ||
AACTT/AAGTT | 39 | AACTCT/AGAGTT | 1 634 | ACGGCT/AGCCGT | 328 | ||
AAGAC/CTTGT | 53 | AACTGC/AGTTGC | 1 324 | ACGGGC/CCCGTG | 905 | ||
AAGAG/CTCTT | 842 | AACTGG/AGTTCC | 1 288 | ACGGGG/CCCCGT | 242 | ||
AAGAT/ATCTT | 265 | AACTGT/ACAGTT | 750 | ACGTAG/ACGTCT | 148 | ||
AAGCC/CTTGG | 794 | AACTTC/AAGTTG | 5 967 | ACGTAT/ACGTAT | 2 217 | ||
AAGCG/CGCTT | 19 | AACTTG/AAGTTC | 10 215 | ACGTCC/ACGTGG | 1 375 | ||
AAGCT/AGCTT | 47 | AAGAAT/ATTCTT | 3 460 | ACGTCG/ACGTCG | 121 | ||
AAGGC/CCTTG | 42 | AAGACC/CTTGGT | 1 193 | ACGTGC/ACGTGC | 731 | ||
AAGGG/CCCTT | 145 | AAGACG/CGTCTT | 710 | ACTAGC/AGTGCT | 700 | ||
AAGGT/ACCTT | 17 | AAGACT/AGTCTT | 786 | ACTAGG/AGTCCT | 3 767 | ||
AAGTC/ACTTG | 485 | AAGAGC/CTCTTG | 2 485 | ACTAGT/ACTAGT | 303 | ||
AAGTG/ACTTC | 4 610 | AAGAGG/CCTCTT | 10 253 | ACTATC/AGTGAT | 1 224 | ||
AATAC/ATTGT | 615 | AAGAGT/ACTCTT | 1 952 | ACTATG/AGTCAT | 1 621 | ||
AATAG/ATTCT | 61 | AAGATC/ATCTTG | 4 986 | ACTCAG/AGTCTG | 2 278 | ||
AATAT/ATATT | 5 016 | AAGATG/ATCTTC | 10 247 | ACTCAT/AGTATG | 2 459 | ||
AATCC/ATTGG | 321 | AAGATT/AATCTT | 4 734 | ACTCCC/AGTGGG | 1 826 | ||
AATCG/ATTCG | 110 | AAGCAC/CTTGTG | 2 892 | ACTCCG/AGTCGG | 465 | ||
AATCT/AGATT | 95 | AAGCAG/CTGCTT | 2 133 | ACTCCT/AGGAGT | 1 183 | ||
AATGC/ATTGC | 405 | AAGCAT/ATGCTT | 2 183 | ACTCGC/AGTGCG | 257 | ||
AATGG/ATTCC | 147 | AAGCCC/CTTGGG | 4 609 | ACTCGG/AGTCCG | 1 660 | ||
AATGT/ACATT | 541 | AAGCCG/CGGCTT | 580 | ACTCTC/AGAGTG | 3 800 | ||
AATTC/AATTG | 543 | AAGCCT/AGGCTT | 1 550 | ACTCTG/AGAGTC | 599 | ||
ACACC/GGTGT | 348 | AAGCGC/CGCTTG | 294 | ACTGAG/AGTCTC | 551 | ||
ACACG/CGTGT | 9 | AAGCGG/CCGCTT | 576 | ACTGAT/AGTATC | 1 164 | ||
ACACT/AGTGT | 38 | AAGCGT/ACGCTT | 75 | ACTGCC/AGTGGC | 1 372 | ||
ACAGC/CTGTG | 9 | AAGCTC/AGCTTG | 4 709 | ACTGCG/AGTCGC | 168 | ||
ACAGG/CCTGT | 21 | AAGCTG/AGCTTC | 7 745 | ACTGCT/AGCAGT | 1 141 | ||
ACAGT/ACTGT | 8 | AAGCTT/AAGCTT | 637 | ACTGGC/AGTGCC | 383 | ||
ACATC/ATGTG | 159 | AAGGAC/CCTTGT | 1 602 | ACTGGG/AGTCCC | 409 | ||
ACATG/ATGTC | 71 | AAGGAG/CCTTCT | 7 304 | AGAGAT/ATCTCT | 3 771 | ||
ACCAG/CTGGT | 40 | AAGGAT/ATCCTT | 1 330 | AGAGCC/CTCTGG | 490 | ||
ACCAT/ATGGT | 60 | AAGGCC/CCTTGG | 1 589 | AGAGCG/CGCTCT | 640 | ||
ACCCC/GGGGT | 224 | AAGGCG/CCTTCG | 576 | AGAGCT/AGCTCT | 679 | ||
ACCCG/CGGGT | 1 116 | AAGGCT/AGCCTT | 2 479 | AGAGGC/CCTCTG | 1 488 | ||
ACCCT/AGGGT | 158 | AAGGGC/CCCTTG | 3 629 | AGAGGG/CCCTCT | 13 547 | ||
ACCGC/CGGTG | 13 | AAGGGG/CCCCTT | 1 341 | AGATAT/ATATCT | 2 474 | ||
ACCGG/CCGGT | 23 | AAGGGT/ACCCTT | 895 | AGATCC/ATCTGG | 2 574 | ||
ACCGT/ACGGT | 16 | AAGGTC/ACCTTG | 2 144 | AGATCG/ATCTCG | 2 448 | ||
ACCTC/AGGTG | 108 | AAGGTG/ACCTTC | 1 357 | AGATCT/AGATCT | 7 794 | ||
ACCTG/AGGTC | 190 | AAGTAC/ACTTGT | 2 484 | AGATGC/ATCTGC | 1 283 | ||
ACGAG/CGTCT | 10 | AAGTAG/ACTTCT | 2 400 | AGATGG/ATCTCC | 3 514 | ||
ACGAT/ATCGT | 12 | AAGTAT/ACTTAT | 2 098 | AGCAGG/CCTGCT | 1 995 | ||
ACGCC/CGTGG | 16 | AAGTCC/ACTTGG | 2 419 | AGCATC/ATGCTG | 1 888 | ||
ACGCG/CGCGT | 59 | AAGTCG/ACTTCG | 680 | AGCATG/ATGCTC | 1 941 | ||
ACGCT/AGCGT | 134 | AAGTCT/ACTTAG | 1 184 | AGCCAT/ATGGCT | 1 592 | ||
ACGGC/CCGTG | 29 | AAGTGC/ACTTGC | 1 505 | AGCCCC/CTGGGG | 586 | ||
ACGGG/CCCGT | 96 | AAGTGG/ACTTCC | 2 034 | AGCCCG/CGGGCT | 1 664 | ||
ACGTC/ACGTG | 5 | AAGTGT/ACACTT | 2 394 | AGCCCT/AGGGCT | 2 038 | ||
ACTAG/AGTCT | 26 | AATACC/ATTGGT | 1 986 | AGCCGC/CGGCTG | 1 138 | ||
ACTAT/AGTAT | 38 | AATACG/ATTCGT | 293 | AGCCGG/CCGGCT | 181 | ||
ACTCC/AGTGG | 51 | AATACT/AGTATT | 1 379 | AGCCTC/AGGCTG | 1 587 | ||
ACTCG/AGTCG | 5 576 | AATAGC/ATTGCT | 1 168 | AGCCTG/AGGCTC | 898 | ||
ACTCT/AGAGT | 42 | AATAGG/ATTCCT | 1 378 | AGCGAT/ATCGCT | 263 | ||
ACTGC/AGTGC | 107 | AATAGT/ACTATT | 1 471 | AGCGCC/CGCTGG | 125 | ||
ACTGG/AGTCC | 190 | AATATC/ATATTG | 5 353 | AGCGCG/CGCGCT | 587 | ||
AGAGC/CTCTG | 49 | AATATG/ATATTC | 4 373 | AGCGCT/AGCGCT | 59 | ||
AGAGG/CCTCT | 686 | AATATT/AATATT | 5 310 | AGCGGC/CCGCTG | 437 | ||
AGATC/ATCTG | 111 | AATCAC/ATTGTG | 4 911 | AGCGGG/CCCGCT | 265 | ||
AGATG/ATCTC | 138 | AATCAG/ATTCTG | 11 721 | AGCTAT/AGCTAT | 634 | ||
AGCAT/ATGCT | 37 | AATCAT/ATGATT | 5 477 | AGCTCC/AGCTGG | 727 | ||
AGCCC/CTGGG | 477 | AATCCC/ATTGGG | 5 187 | AGCTCG/AGCTCG | 3 119 | ||
AGCCG/CGGCT | 1 587 | AATCCG/ATTCGG | 2 049 | AGCTGC/AGCTGC | 585 | ||
AGCCT/AGGCT | 159 | AATCCT/AGGATT | 27 944 | AGGATC/ATCCTG | 884 | ||
AGCGC/CGCTG | 3 | AATCGC/ATTGCG | 381 | AGGATG/ATCCTC | 2 957 | ||
AGCGG/CCGCT | 8 | AATCGG/ATTCCG | 14 276 | AGGCAT/ATGCCT | 738 | ||
AGCTC/AGCTG | 259 | AATCGT/ACGATT | 386 | AGGCCC/CCTGGG | 1 468 | ||
AGGAT/ATCCT | 55 | AATCTC/AGATTG | 7 139 | AGGCCG/CCTCGG | 2 158 | ||
AGGCC/CCTGG | 66 | AATCTG/AGATTC | 4 978 | AGGCCT/AGGCCT | 951 | ||
AGGCG/CCTCG | 14 | AATGAC/ATTGTC | 4 835 | AGGCGC/CCTGCG | 155 | ||
AGGGC/CCCTG | 86 | AATGAG/ATTCTC | 4 143 | AGGCGG/CCGCCT | 503 | ||
AGGGG/CCCCT | 117 | AATGAT/ATCATT | 5 868 | AGGGAT/ATCCCT | 675 | ||
ATATC/ATATG | 219 | AATGCC/ATTGGC | 2 382 | AGGGCC/CCCTGG | 732 | ||
ATCCC/ATGGG | 379 | AATGCG/ATTCGC | 514 | AGGGCG/CCCTCG | 923 | ||
ATCCG/ATCGG | 585 | AATGCT/AGCATT | 1 371 | AGGGGC/CCCCTG | 880 | ||
ATCGC/ATGCG | 19 | AATGGC/ATTGCC | 1 421 | AGGGGG/CCCCCT | 2 185 | ||
ATGCC/ATGGC | 82 | AATGGG/ATTCCC | 2 050 | ATATCC/ATATGG | 3 808 | ||
CCCCG/CGGGG | 95 | AATGGT/ACCATT | 3 494 | ATATCG/ATATCG | 1 939 | ||
CCCGG/CCGGG | 620 | AATGTC/ACATTG | 1 861 | ATATGC/ATATGC | 3 035 | ||
CCGCG/CGCGG | 7 | AATGTG/ACATTC | 7 250 | ATCATG/ATCATG | 2 258 | ||
AAAAAC/GTTTTT | 19 087 | AATTAC/AATTGT | 5 673 | ATCCCC/ATGGGG | 1 580 | ||
AAAAAG/CTTTTT | 56 652 | AATTAG/AATTCT | 9 727 | ATCCCG/ATCGGG | 2 730 | ||
AAAAAT/ATTTTT | 86 617 | AATTAT/AATTAT | 3 550 | ATCCGC/ATGCGG | 720 | ||
AAAACC/GGTTTT | 29 310 | AATTCC/AATTGG | 5 473 | ATCCGG/ATCCGG | 192 | ||
AAAACG/CGTTTT | 978 | AATTCG/AATTCG | 863 | ATCGCC/ATGGCG | 786 | ||
AAAACT/AGTTTT | 9 115 | AATTGC/AATTGC | 1 230 | ATCGCG/ATCGCG | 70 | ||
AAAAGC/CTTTTG | 5 164 | ACACAG/CTGTGT | 916 | ATCGGC/ATGCCG | 462 | ||
AAAAGG/CCTTTT | 13 242 | ACACAT/ATGTGT | 5 374 | ATGCCC/ATGGGC | 3 626 | ||
AAAAGT/ACTTTT | 4 352 | ACACCC/GGGTGT | 2 397 | ATGCGC/ATGCGC | 239 | ||
AAAATC/ATTTTG | 32 208 | ACACCG/CGGTGT | 496 | ATGGCC/ATGGCC | 875 | ||
AAAATG/ATTTTC | 13 927 | ACACCT/AGGTGT | 4 355 | CCCCCG/CGGGGG | 281 | ||
AAAATT/AATTTT | 19 468 | ACACGC/CGTGTG | 2 074 | CCCCGG/CCGGGG | 190 | ||
AAACAC/GTGTTT | 6 936 | ACACGG/CCGTGT | 412 | CCCGCG/CGCGGG | 170 | ||
AAACAG/CTGTTT | 2 908 | ACACGT/ACGTGT | 470 | CCCGGG/CCCGGG | 228 | ||
AAACAT/ATGTTT | 9 315 | ACACTC/AGTGTG | 2 406 | CCGCGG/CCGCGG | 380 | ||
AAACCC/GGGTTT | 15 056 | ACACTG/AGTGTC | 643 | CCGGCG/CCGGCG | 44 |
Table 2
Information of 25 polymorphic primers developed from M. biondii"
引物名称 Primer name | SSR位点类型 SSR type | 引物序列(5′–3′) Primer sequence(5′–3′) | 预期产物大小 Product size/bp | 扩增总带数 Total bands | 多态性带数 Number of polymorphic bands | PIC值 PIC value |
Chr01-4 | (GGGTT)3 | F: CAATCAAACTAGGGCCGAAA R: CCCAGGCTTGGATTGAGTTA | 121 | 3 | 1 | 0.54 |
Chr02-1 | (TCGAG)3 | F: ATTGGAGCTTGGCTTGTTTG R: GGGCCACGTTAGATTTTTCA | 119 | 4 | 2 | 0.72 |
Chr03-7 | (TGGACA)4 | F: TGAGATGGACTGGATCTGGA R: CTGCCACTTGGGGAGTAAAA | 110 | 3 | 2 | 0.52 |
Chr04-7 | (AAAAAT)4 | F: CAAATGGAGGAGATCTGGGA R: GCATATGCGAAAATATGCGA | 125 | 2 | 1 | 0.38 |
Chr05-1 | (AAACA)3 | F: GGCATCTAGGAGCTCGACTG R: GGACACCTCTCTGTCGCCTA | 140 | 2 | 1 | 0.44 |
Chr06-10 | (AAT)11 | F: CAAGCTGGCCTCTTTTGTCT R: TGCATTCATCATATTCAGCCTC | 128 | 3 | 1 | 0.57 |
Ch07-15 | (TATGGT)2 | F: CCTCCCCACACCTCAGATT R: GGGAGGTACACATTTTCCTTGA | 149 | 2 | 1 | 0.38 |
Chr08-5 | (AGAAA)3 | F: AGATTGGCGTCCTCAATAGG R: AGTCCTGCAACAGCTCCACT | 125 | 3 | 2 | 0.56 |
Chr09-2 | (CAATC)3 | F: GGATCGTCCAATTAGCAGACA R: TCTGAGTTGACCAGCTGACG | 138 | 3 | 1 | 0.61 |
Chr10-7 | (ATTATA)4 | F: TGGAGTCTATTAAGACTATGGCACA R: CGAAAGCCTATCTCGGATCA | 134 | 5 | 4 | 0.6 |
Chr11-21 | (TATAT)6 | F: GAAACCACGTGATGCATGTT R: CCCCACTTCCCTCTTTCTCT | 147 | 3 | 1 | 0.54 |
Chr11-23 | (TTTTA)6 | F: AAACAGCTGCTGCAAGTGAG R: CGACTCGCCTATATCTGTACACC | 133 | 2 | 1 | 0.24 |
Chr11-24 | (GGTTG)7 | F: GGTCAAGGTCTTCCTGAACCT R: GGATCCTTGGGTTGGACTAGA | 143 | 4 | 2 | 0.54 |
Chr12-1 | (CAGCT)3 | F: ACTCCCAACTGGCTCTGCT R: CCAGATAGGCTCGAGGTCTG | 136 | 2 | 1 | 0.24 |
Chr13-5 | (GAGGC)3 | F: TTCCCTTTTTGCAGTTCGAG R: GCCCTCTATAGATACGGCCTG | 127 | 3 | 1 | 0.61 |
Chr13-12 | (ACCCA)6 | F: CAAATCATTAAATCGTATAAAACCCA R: GTCAGGGTTGGGTCAACATT | 108 | 2 | 1 | 0.24 |
Chr14-11 | (ATGG)3 | F: CAAGCCCTAAAATGAGCTGG; R: ACTGTTTCTCATTGCGGGAG | 125 | 2 | 1 | 0.38 |
Chr14-12 | (TGCAAT)2 | F: CTCCCGCAATGAGAAACAGT R: TCCTGCATGACATGGATTGT | 124 | 2 | 1 | 0.44 |
Chr15-6 | (AAAAGA)6 | F: CAAGAGGCTCAACCCAACAT R: GCTAGCTTGGAACGTTTTGC | 143 | 2 | 1 | 0.38 |
Chr15-7 | (GA)18 | F: TGGGAATTTGAAGTCAGTGC R: GAAAAAGAACGGCTCCATGA | 145 | 2 | 1 | 0.24 |
Chr16-5 | (AAGGG)3 | F: CCCTTTCCTCTTCCGACTTT R: CACATTTGCTCACGAACACC | 105 | 4 | 1 | 0.7 |
Chr17-22 | (ACCCA)5 | F: GTTCAAGTCGGGTCGAGGTA R: TGGGTTTAGTCGTTCTTGGG | 143 | 3 | 1 | 0.56 |
Chr18-1 | (ACCCT)3 | F: ATCACTCGATTGTTGGACCC R: TGTAATGATTGCCCAGCAAG | 135 | 2 | 1 | 0.38 |
Chr18-17 | (AAAAT)6 | F: TCCATGGACGACCACAGTTA R: GCCGGGACTGCTTTTACTTA | 118 | 3 | 1 | 0.61 |
Chr19-6 | (AAT)10 | F: CAGGAACGTCCAGCTTCTCT R: AAATTTCAATGGTCTCGGCA | 125 | 3 | 1 | 0.61 |
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