园艺学报 ›› 2023, Vol. 50 ›› Issue (2): 397-409.doi: 10.16420/j.issn.0513-353x.2021-1039
于婷婷, 李欢, 宁源生, 宋建飞, 彭璐琳, 贾竣淇, 张玮玮, 杨洪强*()
收稿日期:
2022-06-06
修回日期:
2022-09-26
出版日期:
2023-02-25
发布日期:
2023-03-06
通讯作者:
*(E-mail:hqyang@sdau.edu.cn)
基金资助:
YU Tingting, LI Huan, NING Yuansheng, SONG Jianfei, PENG Lulin, JIA Junqi, ZHANG Weiwei, YANG Hongqiang*()
Received:
2022-06-06
Revised:
2022-09-26
Online:
2023-02-25
Published:
2023-03-06
Contact:
*(E-mail:hqyang@sdau.edu.cn)
摘要:
从苹果(Malus × domestica)全基因组中鉴定到78个结构完整的GRAS基因,它们的编码蛋白分属于11个亚家族,其中LISCL亚家族成员最多;这78个MdGRAS基因分别定位于18条染色体上,其中11个位于3号染色体上。苹果GRAS家族中还存在片段复制和串联复制基因。苹果器官特异性表达谱显示,除MdGRAS47外,大部分MdGRAS在根系中表达量较低;MdGRAS20在枝条中表达量较高,MdGRAS18、MdGRAS55和MdGRAS61在种子中表达量较高。启动子分析显示,这78个MdGRAS全部含光响应元件,76个含胁迫相关元件,37个含有生长素响应元件;17个MdGRAS的表达对2,4-D处理有响应,其中MdGRAS30和MdGRAS61的响应最显著。
中图分类号:
于婷婷, 李欢, 宁源生, 宋建飞, 彭璐琳, 贾竣淇, 张玮玮, 杨洪强. 苹果GRAS全基因组鉴定及其对生长素的响应分析[J]. 园艺学报, 2023, 50(2): 397-409.
YU Tingting, LI Huan, NING Yuansheng, SONG Jianfei, PENG Lulin, JIA Junqi, ZHANG Weiwei, YANG Hongqiang. Genome-wide Identification of GRAS Gene Family in Apple and Expression Analysis of Its Response to Auxin[J]. Acta Horticulturae Sinica, 2023, 50(2): 397-409.
名称 Primer | 碱基序列(5′-3′) Sequence | 名称 Primer | 碱基序列(5′-3′) Sequence |
---|---|---|---|
MdGRAS8-F | ACAGAGCAAGAGGCAAACCA | MdGRAS8-R | CTCTCCGTTCGCTCAGTTCC |
MdGRAS13-F | GAGGGTAAGCCCTGCATGTT | MdGRAS13-R | CCCCAGTCTGTCTTGGTAGC |
MdGRAS14-F | TGATCCTCAATGGGTTGGCG | MdGRAS14-R | AAGAGCCCTGCAGCACATTA |
MdGRAS30-F | CGGTTGTGGATAGGTTGGAG | MdGRAS30-R | ATTGTGCTCAGCCTCTTGCT |
MdGRAS34-F | AGGGATCGCGTGGAAAGATG | MdGRAS34-R | AGAGTGCGGCTTATCCAACC |
MdGRAS41-F | TCCAACTCGTCCACACACTC | MdGRAS41-R | GGAAGAATCGAGGCAATCCT |
MdGRAS44-F | TCACTTCCAACCAAGCCATC | MdGRAS44-R | TGAGAGTTGCTTTCCGGTCT |
MdGRAS50-F | TTCAAACAGGCGCTCTTCCA | MdGRAS50-R | CCGATCCTCGCATACCTAGC |
MdGRAS53-F | TGACTCCCTAGATGCCATGC | MdGRAS53-R | CCTGCGCCAGCATCTTAATC |
MdGRAS55-F | AGATGCAGAGGTCCATGTCA | MdGRAS55-R | GAGAGCTTCAGCACATGCAA |
MdGRAS56-F | GCAGCGCCTTGATGATATGC | MdGRAS56-R | CCATCGGCACACTTGCTTTC |
MdGRAS61-F | CAGCAACACTTACTGCACCC | MdGRAS61-R | TGAAAGGCACCCCCATCAAC |
MdGRAS62-F | ACCGGAATTCCCCAATCGAG | MdGRAS62-R | CATCTCCGCCAACGTCTTCT |
MdGRAS63-F | GGAGGGTGCTAAATGGGCTT | MdGRAS63-R | GGTTTGTGCAAAACTCCCCA |
MdGRAS68-F | GCTCTTCAGTCCCTCCTCAA | MdGRAS68-R | ATGTCGAAGTCGATGACGTG |
MdGRAS69-F | CAGCAACACTTACTGCACCC | MdGRAS69-R | TGAAAGGCACCCCCATCAAC |
MdGRAS75-F | GGAGGGTGCTAAATGGGCTT | MdGRAS75-R | TGTAGCACCGGAGACCTGAT |
表1 qRT-PCR引物序列
Table 1 Primer sequences of QRT-PCR
名称 Primer | 碱基序列(5′-3′) Sequence | 名称 Primer | 碱基序列(5′-3′) Sequence |
---|---|---|---|
MdGRAS8-F | ACAGAGCAAGAGGCAAACCA | MdGRAS8-R | CTCTCCGTTCGCTCAGTTCC |
MdGRAS13-F | GAGGGTAAGCCCTGCATGTT | MdGRAS13-R | CCCCAGTCTGTCTTGGTAGC |
MdGRAS14-F | TGATCCTCAATGGGTTGGCG | MdGRAS14-R | AAGAGCCCTGCAGCACATTA |
MdGRAS30-F | CGGTTGTGGATAGGTTGGAG | MdGRAS30-R | ATTGTGCTCAGCCTCTTGCT |
MdGRAS34-F | AGGGATCGCGTGGAAAGATG | MdGRAS34-R | AGAGTGCGGCTTATCCAACC |
MdGRAS41-F | TCCAACTCGTCCACACACTC | MdGRAS41-R | GGAAGAATCGAGGCAATCCT |
MdGRAS44-F | TCACTTCCAACCAAGCCATC | MdGRAS44-R | TGAGAGTTGCTTTCCGGTCT |
MdGRAS50-F | TTCAAACAGGCGCTCTTCCA | MdGRAS50-R | CCGATCCTCGCATACCTAGC |
MdGRAS53-F | TGACTCCCTAGATGCCATGC | MdGRAS53-R | CCTGCGCCAGCATCTTAATC |
MdGRAS55-F | AGATGCAGAGGTCCATGTCA | MdGRAS55-R | GAGAGCTTCAGCACATGCAA |
MdGRAS56-F | GCAGCGCCTTGATGATATGC | MdGRAS56-R | CCATCGGCACACTTGCTTTC |
MdGRAS61-F | CAGCAACACTTACTGCACCC | MdGRAS61-R | TGAAAGGCACCCCCATCAAC |
MdGRAS62-F | ACCGGAATTCCCCAATCGAG | MdGRAS62-R | CATCTCCGCCAACGTCTTCT |
MdGRAS63-F | GGAGGGTGCTAAATGGGCTT | MdGRAS63-R | GGTTTGTGCAAAACTCCCCA |
MdGRAS68-F | GCTCTTCAGTCCCTCCTCAA | MdGRAS68-R | ATGTCGAAGTCGATGACGTG |
MdGRAS69-F | CAGCAACACTTACTGCACCC | MdGRAS69-R | TGAAAGGCACCCCCATCAAC |
MdGRAS75-F | GGAGGGTGCTAAATGGGCTT | MdGRAS75-R | TGTAGCACCGGAGACCTGAT |
基因名 Gene name | 基因ID Gene ID | 起始位点 Start site | 终止位点 End site | 染色体 Chromosome | CDS/bp | 蛋白质性质Deduce polypetide | ||
---|---|---|---|---|---|---|---|---|
长度/aa Length | 分子量/Da MW | 等电点 pI | ||||||
MdGRAS1 | MD00G1043300 | 7 80 6171 | 7 809 643 | Chrom00 | 2 424 | 808 | 88 359.54 | 5.80 |
MdGRAS2 | MD00G1112400 | 23 667 785 | 23 669 215 | Chrom00 | 1 428 | 476 | 53 228.76 | 5.67 |
MdGRAS3 | MD01G1206800 | 30 231 215 | 30 233 158 | Chrom01 | 1 941 | 647 | 70 816.40 | 6.63 |
MdGRAS4 | MD02G1039600 | 3 216 839 | 3 218 479 | Chrom02 | 1 638 | 546 | 59 826.80 | 5.63 |
MdGRAS5 | MD02G1148800 | 12 235 195 | 12 237 263 | Chrom02 | 1 812 | 604 | 66 498.43 | 5.17 |
MdGRAS6 | MD02G1185900 | 16 892 351 | 16 893 874 | Chrom02 | 1 521 | 507 | 56 882.60 | 5.22 |
MdGRAS7 | MD02G1210200 | 21 832 327 | 21 834 579 | Chrom02 | 2 250 | 750 | 81 783.01 | 5.80 |
MdGRAS8 | MD02G1295800 | 35 009 786 | 35 012 501 | Chrom02 | 1 374 | 458 | 51 566.29 | 5.67 |
MdGRAS9 | MD03G1045700 | 3 674 587 | 3 675 963 | Chrom03 | 1 374 | 458 | 52 030.80 | 6.04 |
MdGRAS10 | MD03G1088900 | 7 330 830 | 7 332 881 | Chrom03 | 2 049 | 683 | 77 700.00 | 5.52 |
MdGRAS11 | MD03G1089100 | 7 337 571 | 7 339 625 | Chrom03 | 2 052 | 684 | 78 076.35 | 6.42 |
MdGRAS12 | MD03G1089200 | 7 340 949 | 7 345 605 | Chrom03 | 3 828 | 1 276 | 144 938.23 | 5.93 |
MdGRAS13 | MD03G1089300 | 7 346 485 | 7 348 548 | Chrom03 | 2 061 | 687 | 77 570.95 | 5.49 |
MdGRAS14 | MD03G1089700 | 7 367 711 | 7 371 218 | Chrom03 | 2 427 | 809 | 91 167.55 | 5.41 |
MdGRAS15 | MD03G1089800 | 7 380 517 | 7 382 781 | Chrom03 | 2 208 | 736 | 82 619.61 | 5.28 |
MdGRAS16 | MD03G1169300 | 22 929 145 | 22 930 705 | Chrom03 | 738 | 246 | 27 338.81 | 5.90 |
MdGRAS17 | MD03G1188800 | 25 920 210 | 25 922 997 | Chrom03 | 1 611 | 537 | 59 547.07 | 5.15 |
MdGRAS18 | MD03G1214700 | 29 482 170 | 29 485 609 | Chrom03 | 1 749 | 583 | 64 679.63 | 5.73 |
MdGRAS19 | MD03G1293700 | 37 023 448 | 37 025 172 | Chrom03 | 1 722 | 574 | 65 184.13 | 5.94 |
MdGRAS20 | MD04G1046000 | 5 332 407 | 5 334 295 | Chrom04 | 1 278 | 426 | 47 811.20 | 5.21 |
MdGRAS21 | MD04G1088100 | 13 542 153 | 13 544 592 | Chrom04 | 2 382 | 794 | 86 879.60 | 6.00 |
MdGRAS22 | MD04G1163300 | 25 473 582 | 25 475 192 | Chrom04 | 1 608 | 536 | 60 735.28 | 4.67 |
MdGRAS23 | MD04G1163400 | 25 477 063 | 25 478 646 | Chrom04 | 1 581 | 527 | 59 593.09 | 4.82 |
MdGRAS24 | MD04G1181500 | 27 256 030 | 27 259 385 | Chrom04 | 2 487 | 829 | 88 693.53 | 5.88 |
MdGRAS25 | MD05G1011200 | 2 343 179 | 2 345 898 | Chrom05 | 1 737 | 579 | 64 386.15 | 4.96 |
MdGRAS26 | MD05G1040300 | 6 871 948 | 6 873 466 | Chrom05 | 1 440 | 480 | 54 685.42 | 6.91 |
MdGRAS27 | MD05G1194300 | 32 192 340 | 32 195 288 | Chrom05 | 1 704 | 568 | 63 969.95 | 6.42 |
MdGRAS28 | MD05G1229500 | 36 294 983 | 36 296 611 | Chrom05 | 1 626 | 542 | 60 679.72 | 4.86 |
MdGRAS29 | MD05G1360300 | 47 489 161 | 47 492 239 | Chrom05 | 1 608 | 536 | 60 231.21 | 5.68 |
MdGRAS30 | MD06G1073500 | 18 288 623 | 18 290 677 | Chrom06 | 2 052 | 684 | 75 422.74 | 5.56 |
MdGRAS31 | MD06G1148900 | 29 171 471 | 29 173 054 | Chrom06 | 1 581 | 527 | 58 725.06 | 6.37 |
MdGRAS32 | MD07G1030000 | 2 514 355 | 2 517 053 | Chrom07 | 1 374 | 458 | 51 767.52 | 5.86 |
MdGRAS33 | MD07G1115800 | 13 984 309 | 13 986 546 | Chrom07 | 2 235 | 745 | 81 207.10 | 5.50 |
MdGRAS34 | MD07G1277400 | 34 273 655 | 34 275 613 | Chrom07 | 1 956 | 652 | 71 075.63 | 6.27 |
MdGRAS35 | MD08G1167600 | 19 831 740 | 19 833 281 | Chrom08 | 1 539 | 513 | 56 341.82 | 5.36 |
MdGRAS36 | MD09G1007200 | 510 029 | 513 274 | Chrom09 | 2 112 | 704 | 78 249.07 | 5.82 |
MdGRAS37 | MD09G1103000 | 7 539 020 | 7 540 351 | Chrom09 | 1 329 | 443 | 49 061.78 | 5.19 |
基因名 Gene name | 基因ID Gene ID | 起始位点 Start site | 终止位点 End site | 染色体 Chromosome | CDS/bp | 蛋白质性质Deduce polypetide | ||
长度/aa Length | 分子量/Da MW | 等电点 pI | ||||||
MdGRAS38 | MD09G1121700 | 9 383 149 | 9 386 262 | Chrom09 | 1 659 | 553 | 62 323.66 | 5.74 |
MdGRAS39 | MD09G1137800 | 10 707 681 | 10 709 030 | Chrom09 | 1 347 | 449 | 48 949.18 | 5.35 |
MdGRAS40 | MD09G1183000 | 15 735 881 | 15 737 539 | Chrom09 | 1 656 | 552 | 61 147.14 | 6.07 |
MdGRAS41 | MD09G1264800 | 33 799 664 | 33 801 406 | Chrom09 | 1 740 | 580 | 63 166.16 | 5.09 |
MdGRAS42 | MD10G1011000 | 1 547 558 | 1 550 844 | Chrom10 | 1 737 | 579 | 64 463.19 | 5.03 |
MdGRAS43 | MD10G1046300 | 6 180 700 | 6 182 115 | Chrom10 | 1 413 | 471 | 53 926.17 | 6.31 |
MdGRAS44 | MD10G1181000 | 27 411 839 | 27 413 593 | Chrom10 | 1 542 | 514 | 58 030.64 | 5.91 |
MdGRAS45 | MD10G1336100 | 41 266 090 | 41 268 919 | Chrom10 | 1 374 | 458 | 51 746.93 | 6.36 |
MdGRAS46 | MD11G1047900 | 4 170 134 | 4 171 525 | Chrom11 | 1 389 | 463 | 52 716.63 | 6.07 |
MdGRAS47 | MD11G1097900 | 8 118 511 | 8 120 535 | Chrom11 | 2 022 | 674 | 76 651.13 | 5.45 |
MdGRAS48 | MD11G1098000 | 8 127 739 | 8 129 778 | Chrom11 | 2 037 | 679 | 77 294.04 | 5.91 |
MdGRAS49 | MD11G1098100 | 8 130 580 | 8 133 055 | Chrom11 | 2 016 | 672 | 76 660.73 | 6.37 |
MdGRAS50 | MD11G1098400 | 8 139 575 | 8 141 815 | Chrom11 | 2 166 | 722 | 81 747.16 | 5.92 |
MdGRAS51 | MD11G1099000 | 8 249 625 | 8 252 956 | Chrom11 | 3 099 | 1 033 | 117 153.74 | 5.91 |
MdGRAS52 | MD11G1099100 | 8 257 519 | 8 259 770 | Chrom11 | 2 196 | 732 | 82 487.76 | 5.81 |
MdGRAS53 | MD11G1196300 | 28 120 653 | 28 122 077 | Chrom11 | 1 422 | 474 | 53 013.14 | 5.90 |
MdGRAS54 | MD11G1204900 | 29 900 777 | 29 903 543 | Chrom11 | 1 611 | 537 | 59 251.93 | 5.34 |
MdGRAS55 | MD11G1229600 | 33 402 652 | 33 405 823 | Chrom11 | 1 749 | 583 | 64 860.12 | 6.02 |
MdGRAS56 | MD12G1143500 | 22 266 875 | 22 270 230 | Chrom12 | 2 253 | 751 | 84 128.64 | 6.77 |
MdGRAS57 | MD12G1176900 | 25 734 748 | 25 736 358 | Chrom12 | 1 608 | 536 | 60 958.87 | 4.70 |
MdGRAS58 | MD12G1177000 | 25 740 719 | 25 742 332 | Chrom12 | 1 611 | 537 | 61 165.83 | 4.74 |
MdGRAS59 | MD12G1177200 | 25 763 298 | 25 764 440 | Chrom12 | 1 140 | 380 | 43 170.96 | 5.48 |
MdGRAS60 | MD12G1196300 | 27 756 178 | 27 759 849 | Chrom12 | 2 472 | 824 | 88 261.14 | 6.01 |
MdGRAS61 | MD13G1022100 | 1 595 594 | 1 597 541 | Chrom13 | 1 905 | 635 | 69 734.67 | 5.30 |
MdGRAS62 | MD13G1108700 | 7 807 026 | 7 808 594 | Chrom13 | 1 566 | 522 | 58 256.08 | 5.67 |
MdGRAS63 | MD13G1155800 | 12 131 064 | 12 132 866 | Chrom13 | 1 800 | 600 | 67 200.29 | 4.98 |
MdGRAS64 | MD13G1155900 | 12 134 055 | 12 135 380 | Chrom13 | 1 323 | 441 | 49 178.14 | 8.25 |
MdGRAS65 | MD14G1162800 | 25 718 896 | 25 720 694 | Chrom14 | 1 641 | 547 | 60 843.48 | 6.05 |
MdGRAS66 | MD15G1180500 | 14 194 327 | 14 195 970 | Chrom15 | 1 641 | 547 | 59 896.09 | 5.53 |
MdGRAS67 | MD15G1263000 | 22 480 624 | 22 482 399 | Chrom15 | 1 773 | 591 | 65 237.96 | 5.15 |
MdGRAS68 | MD15G1266500 | 22 905 968 | 22 907 955 | Chrom15 | 1 644 | 548 | 61 187.13 | 5.69 |
MdGRAS69 | MD15G1294400 | 27 488 933 | 27 489 988 | Chrom15 | 1 053 | 351 | 39 242.76 | 5.41 |
MdGRAS70 | MD15G1294600 | 27 506 241 | 27 507 587 | Chrom15 | 1 344 | 448 | 50 093.24 | 5.63 |
MdGRAS71 | MD15G1307800 | 30 733 067 | 30 734 590 | Chrom15 | 1 521 | 507 | 56 852.69 | 5.38 |
MdGRAS72 | MD15G1353200 | 42 259 451 | 42 260 992 | Chrom15 | 1 539 | 513 | 56 245.27 | 5.13 |
MdGRAS73 | MD16G1023300 | 1 699 006 | 1 700 925 | Chrom16 | 1 917 | 639 | 70 235.28 | 5.25 |
MdGRAS74 | MD17G1011100 | 683 081 | 685 871 | Chrom17 | 2 115 | 705 | 78 634.52 | 5.93 |
MdGRAS75 | MD17G1090800 | 7 544 673 | 7 546 001 | Chrom17 | 1 326 | 442 | 48 974.67 | 5.30 |
MdGRAS76 | MD17G1112700 | 9 646 869 | 9 650 669 | Chrom17 | 1 653 | 551 | 61 949.26 | 6.39 |
MdGRAS77 | MD17G1128300 | 11 266 433 | 11 267 785 | Chrom17 | 1 350 | 450 | 48 959.47 | 5.44 |
MdGRAS78 | MD17G1260700 | 32 107 773 | 32 109 527 | Chrom17 | 1 752 | 584 | 63 697.47 | 4.95 |
表2 苹果中GRAS基因的基本信息
Table 2 Detailed information of identified GRAS genes in apple genome
基因名 Gene name | 基因ID Gene ID | 起始位点 Start site | 终止位点 End site | 染色体 Chromosome | CDS/bp | 蛋白质性质Deduce polypetide | ||
---|---|---|---|---|---|---|---|---|
长度/aa Length | 分子量/Da MW | 等电点 pI | ||||||
MdGRAS1 | MD00G1043300 | 7 80 6171 | 7 809 643 | Chrom00 | 2 424 | 808 | 88 359.54 | 5.80 |
MdGRAS2 | MD00G1112400 | 23 667 785 | 23 669 215 | Chrom00 | 1 428 | 476 | 53 228.76 | 5.67 |
MdGRAS3 | MD01G1206800 | 30 231 215 | 30 233 158 | Chrom01 | 1 941 | 647 | 70 816.40 | 6.63 |
MdGRAS4 | MD02G1039600 | 3 216 839 | 3 218 479 | Chrom02 | 1 638 | 546 | 59 826.80 | 5.63 |
MdGRAS5 | MD02G1148800 | 12 235 195 | 12 237 263 | Chrom02 | 1 812 | 604 | 66 498.43 | 5.17 |
MdGRAS6 | MD02G1185900 | 16 892 351 | 16 893 874 | Chrom02 | 1 521 | 507 | 56 882.60 | 5.22 |
MdGRAS7 | MD02G1210200 | 21 832 327 | 21 834 579 | Chrom02 | 2 250 | 750 | 81 783.01 | 5.80 |
MdGRAS8 | MD02G1295800 | 35 009 786 | 35 012 501 | Chrom02 | 1 374 | 458 | 51 566.29 | 5.67 |
MdGRAS9 | MD03G1045700 | 3 674 587 | 3 675 963 | Chrom03 | 1 374 | 458 | 52 030.80 | 6.04 |
MdGRAS10 | MD03G1088900 | 7 330 830 | 7 332 881 | Chrom03 | 2 049 | 683 | 77 700.00 | 5.52 |
MdGRAS11 | MD03G1089100 | 7 337 571 | 7 339 625 | Chrom03 | 2 052 | 684 | 78 076.35 | 6.42 |
MdGRAS12 | MD03G1089200 | 7 340 949 | 7 345 605 | Chrom03 | 3 828 | 1 276 | 144 938.23 | 5.93 |
MdGRAS13 | MD03G1089300 | 7 346 485 | 7 348 548 | Chrom03 | 2 061 | 687 | 77 570.95 | 5.49 |
MdGRAS14 | MD03G1089700 | 7 367 711 | 7 371 218 | Chrom03 | 2 427 | 809 | 91 167.55 | 5.41 |
MdGRAS15 | MD03G1089800 | 7 380 517 | 7 382 781 | Chrom03 | 2 208 | 736 | 82 619.61 | 5.28 |
MdGRAS16 | MD03G1169300 | 22 929 145 | 22 930 705 | Chrom03 | 738 | 246 | 27 338.81 | 5.90 |
MdGRAS17 | MD03G1188800 | 25 920 210 | 25 922 997 | Chrom03 | 1 611 | 537 | 59 547.07 | 5.15 |
MdGRAS18 | MD03G1214700 | 29 482 170 | 29 485 609 | Chrom03 | 1 749 | 583 | 64 679.63 | 5.73 |
MdGRAS19 | MD03G1293700 | 37 023 448 | 37 025 172 | Chrom03 | 1 722 | 574 | 65 184.13 | 5.94 |
MdGRAS20 | MD04G1046000 | 5 332 407 | 5 334 295 | Chrom04 | 1 278 | 426 | 47 811.20 | 5.21 |
MdGRAS21 | MD04G1088100 | 13 542 153 | 13 544 592 | Chrom04 | 2 382 | 794 | 86 879.60 | 6.00 |
MdGRAS22 | MD04G1163300 | 25 473 582 | 25 475 192 | Chrom04 | 1 608 | 536 | 60 735.28 | 4.67 |
MdGRAS23 | MD04G1163400 | 25 477 063 | 25 478 646 | Chrom04 | 1 581 | 527 | 59 593.09 | 4.82 |
MdGRAS24 | MD04G1181500 | 27 256 030 | 27 259 385 | Chrom04 | 2 487 | 829 | 88 693.53 | 5.88 |
MdGRAS25 | MD05G1011200 | 2 343 179 | 2 345 898 | Chrom05 | 1 737 | 579 | 64 386.15 | 4.96 |
MdGRAS26 | MD05G1040300 | 6 871 948 | 6 873 466 | Chrom05 | 1 440 | 480 | 54 685.42 | 6.91 |
MdGRAS27 | MD05G1194300 | 32 192 340 | 32 195 288 | Chrom05 | 1 704 | 568 | 63 969.95 | 6.42 |
MdGRAS28 | MD05G1229500 | 36 294 983 | 36 296 611 | Chrom05 | 1 626 | 542 | 60 679.72 | 4.86 |
MdGRAS29 | MD05G1360300 | 47 489 161 | 47 492 239 | Chrom05 | 1 608 | 536 | 60 231.21 | 5.68 |
MdGRAS30 | MD06G1073500 | 18 288 623 | 18 290 677 | Chrom06 | 2 052 | 684 | 75 422.74 | 5.56 |
MdGRAS31 | MD06G1148900 | 29 171 471 | 29 173 054 | Chrom06 | 1 581 | 527 | 58 725.06 | 6.37 |
MdGRAS32 | MD07G1030000 | 2 514 355 | 2 517 053 | Chrom07 | 1 374 | 458 | 51 767.52 | 5.86 |
MdGRAS33 | MD07G1115800 | 13 984 309 | 13 986 546 | Chrom07 | 2 235 | 745 | 81 207.10 | 5.50 |
MdGRAS34 | MD07G1277400 | 34 273 655 | 34 275 613 | Chrom07 | 1 956 | 652 | 71 075.63 | 6.27 |
MdGRAS35 | MD08G1167600 | 19 831 740 | 19 833 281 | Chrom08 | 1 539 | 513 | 56 341.82 | 5.36 |
MdGRAS36 | MD09G1007200 | 510 029 | 513 274 | Chrom09 | 2 112 | 704 | 78 249.07 | 5.82 |
MdGRAS37 | MD09G1103000 | 7 539 020 | 7 540 351 | Chrom09 | 1 329 | 443 | 49 061.78 | 5.19 |
基因名 Gene name | 基因ID Gene ID | 起始位点 Start site | 终止位点 End site | 染色体 Chromosome | CDS/bp | 蛋白质性质Deduce polypetide | ||
长度/aa Length | 分子量/Da MW | 等电点 pI | ||||||
MdGRAS38 | MD09G1121700 | 9 383 149 | 9 386 262 | Chrom09 | 1 659 | 553 | 62 323.66 | 5.74 |
MdGRAS39 | MD09G1137800 | 10 707 681 | 10 709 030 | Chrom09 | 1 347 | 449 | 48 949.18 | 5.35 |
MdGRAS40 | MD09G1183000 | 15 735 881 | 15 737 539 | Chrom09 | 1 656 | 552 | 61 147.14 | 6.07 |
MdGRAS41 | MD09G1264800 | 33 799 664 | 33 801 406 | Chrom09 | 1 740 | 580 | 63 166.16 | 5.09 |
MdGRAS42 | MD10G1011000 | 1 547 558 | 1 550 844 | Chrom10 | 1 737 | 579 | 64 463.19 | 5.03 |
MdGRAS43 | MD10G1046300 | 6 180 700 | 6 182 115 | Chrom10 | 1 413 | 471 | 53 926.17 | 6.31 |
MdGRAS44 | MD10G1181000 | 27 411 839 | 27 413 593 | Chrom10 | 1 542 | 514 | 58 030.64 | 5.91 |
MdGRAS45 | MD10G1336100 | 41 266 090 | 41 268 919 | Chrom10 | 1 374 | 458 | 51 746.93 | 6.36 |
MdGRAS46 | MD11G1047900 | 4 170 134 | 4 171 525 | Chrom11 | 1 389 | 463 | 52 716.63 | 6.07 |
MdGRAS47 | MD11G1097900 | 8 118 511 | 8 120 535 | Chrom11 | 2 022 | 674 | 76 651.13 | 5.45 |
MdGRAS48 | MD11G1098000 | 8 127 739 | 8 129 778 | Chrom11 | 2 037 | 679 | 77 294.04 | 5.91 |
MdGRAS49 | MD11G1098100 | 8 130 580 | 8 133 055 | Chrom11 | 2 016 | 672 | 76 660.73 | 6.37 |
MdGRAS50 | MD11G1098400 | 8 139 575 | 8 141 815 | Chrom11 | 2 166 | 722 | 81 747.16 | 5.92 |
MdGRAS51 | MD11G1099000 | 8 249 625 | 8 252 956 | Chrom11 | 3 099 | 1 033 | 117 153.74 | 5.91 |
MdGRAS52 | MD11G1099100 | 8 257 519 | 8 259 770 | Chrom11 | 2 196 | 732 | 82 487.76 | 5.81 |
MdGRAS53 | MD11G1196300 | 28 120 653 | 28 122 077 | Chrom11 | 1 422 | 474 | 53 013.14 | 5.90 |
MdGRAS54 | MD11G1204900 | 29 900 777 | 29 903 543 | Chrom11 | 1 611 | 537 | 59 251.93 | 5.34 |
MdGRAS55 | MD11G1229600 | 33 402 652 | 33 405 823 | Chrom11 | 1 749 | 583 | 64 860.12 | 6.02 |
MdGRAS56 | MD12G1143500 | 22 266 875 | 22 270 230 | Chrom12 | 2 253 | 751 | 84 128.64 | 6.77 |
MdGRAS57 | MD12G1176900 | 25 734 748 | 25 736 358 | Chrom12 | 1 608 | 536 | 60 958.87 | 4.70 |
MdGRAS58 | MD12G1177000 | 25 740 719 | 25 742 332 | Chrom12 | 1 611 | 537 | 61 165.83 | 4.74 |
MdGRAS59 | MD12G1177200 | 25 763 298 | 25 764 440 | Chrom12 | 1 140 | 380 | 43 170.96 | 5.48 |
MdGRAS60 | MD12G1196300 | 27 756 178 | 27 759 849 | Chrom12 | 2 472 | 824 | 88 261.14 | 6.01 |
MdGRAS61 | MD13G1022100 | 1 595 594 | 1 597 541 | Chrom13 | 1 905 | 635 | 69 734.67 | 5.30 |
MdGRAS62 | MD13G1108700 | 7 807 026 | 7 808 594 | Chrom13 | 1 566 | 522 | 58 256.08 | 5.67 |
MdGRAS63 | MD13G1155800 | 12 131 064 | 12 132 866 | Chrom13 | 1 800 | 600 | 67 200.29 | 4.98 |
MdGRAS64 | MD13G1155900 | 12 134 055 | 12 135 380 | Chrom13 | 1 323 | 441 | 49 178.14 | 8.25 |
MdGRAS65 | MD14G1162800 | 25 718 896 | 25 720 694 | Chrom14 | 1 641 | 547 | 60 843.48 | 6.05 |
MdGRAS66 | MD15G1180500 | 14 194 327 | 14 195 970 | Chrom15 | 1 641 | 547 | 59 896.09 | 5.53 |
MdGRAS67 | MD15G1263000 | 22 480 624 | 22 482 399 | Chrom15 | 1 773 | 591 | 65 237.96 | 5.15 |
MdGRAS68 | MD15G1266500 | 22 905 968 | 22 907 955 | Chrom15 | 1 644 | 548 | 61 187.13 | 5.69 |
MdGRAS69 | MD15G1294400 | 27 488 933 | 27 489 988 | Chrom15 | 1 053 | 351 | 39 242.76 | 5.41 |
MdGRAS70 | MD15G1294600 | 27 506 241 | 27 507 587 | Chrom15 | 1 344 | 448 | 50 093.24 | 5.63 |
MdGRAS71 | MD15G1307800 | 30 733 067 | 30 734 590 | Chrom15 | 1 521 | 507 | 56 852.69 | 5.38 |
MdGRAS72 | MD15G1353200 | 42 259 451 | 42 260 992 | Chrom15 | 1 539 | 513 | 56 245.27 | 5.13 |
MdGRAS73 | MD16G1023300 | 1 699 006 | 1 700 925 | Chrom16 | 1 917 | 639 | 70 235.28 | 5.25 |
MdGRAS74 | MD17G1011100 | 683 081 | 685 871 | Chrom17 | 2 115 | 705 | 78 634.52 | 5.93 |
MdGRAS75 | MD17G1090800 | 7 544 673 | 7 546 001 | Chrom17 | 1 326 | 442 | 48 974.67 | 5.30 |
MdGRAS76 | MD17G1112700 | 9 646 869 | 9 650 669 | Chrom17 | 1 653 | 551 | 61 949.26 | 6.39 |
MdGRAS77 | MD17G1128300 | 11 266 433 | 11 267 785 | Chrom17 | 1 350 | 450 | 48 959.47 | 5.44 |
MdGRAS78 | MD17G1260700 | 32 107 773 | 32 109 527 | Chrom17 | 1 752 | 584 | 63 697.47 | 4.95 |
图2 苹果GRAS基因的染色体定位及共线性关系 背景中灰色线条表示苹果基因组内的共线区域,彩色线条突出显示共线性的MdGRAS基因对。
Fig. 2 Chromosomal location and synteny analysis of MdGRASs The gray lines in the background indicate the collinear blocks in the apple genome,and the colored line highlights the synteny MdGRAS gene pairs.
图3 MdGRAS基因在苹果不同器官中的表达谱 红色代表相对较高的表达水平,而绿色代表相对较弱的基因表达水平。M67、M74、M20、M14、M49、X8877、金冠、X41002、X4442和X2596为苹果品种或基因型。
Fig. 3 Expression profile of MdGRAS gene in different organ of apple Red represents relatively high expression levels,while green represents relatively weak expression levels. M67,M74,M20,M14,M49,X8877,Gold Delicious,X41002,X4442 and X2596 represent apple cultivars or genotypes.
[1] |
Achard P, Cheng H, de Grauwe L, Decat J, Schoutteten H, Moritz T, van Der Straeten D, Peng J, Harberd N P. 2006. Integration of plant responses to environmentally activated phytohormonal signals. Science, 311 (5757):91-94.
doi: 10.1126/science.1118642 pmid: 16400150 |
[2] | Awan M, Habib S, Li N, Yang L, Li Z. 2019. Overexpression of SlGRAS7 affects multiple behaviors leading to confer abiotic stresses tolerance and impacts gibberellin and auxin signaling in tomato. International Journal of Genomics, 2019:4051981. |
[3] |
Bolle C. 2004. The role of GRAS proteins in plant signal transduction and development. Planta, 18 (5):683-692.
doi: 10.1007/BF01912648 URL |
[4] |
Cruz-Ramírez A, Díaz-Triviño S, Blilou I, Grieneisen V A, Sozzani R, Zamioudis C, Miskolczi P, Nieuwland J, Benjamins R, Dhonukshe P, Caballero-Pérez J, Horvath B, Long Y, Mähönen A P, Zhang H, Xu J, Murray J A, Benfey P N, Bako L, Marée A F, Scheres B. 2012. A bistable circuit involving SCARECROW-RETINOBLASTOMA integrates cues to inform asymmetric stem cell division. Cell, 150 (5):1002-1015.
doi: 10.1016/j.cell.2012.07.017 pmid: 22921914 |
[5] |
Cui H, Kong D, Liu X, Hao Y. 2014. SCARECROW,SCR-LIKE 23 and SHORT-ROOT control bundle sheath cell fate and function in Arabidopsis thaliana. Plant J, 78 (2):319-327.
doi: 10.1111/tpj.12470 URL |
[6] | Daccord N, Celton J M, Linsmith G, Becker C, Choisne N, Schijlen E, van de Geest H, Bianco L, Micheletti D, Velasco R, Di Pierro E A, Gouzy J, Rees D J G, Guérif P, Muranty H, Durel C E, Laurens F, Lespinasse Y, Gaillard S, Aubourg S, Quesneville H, Weigel D, van de Weg E, Troggio M, Bucher E. 2017. High-quality de novo assembly of the apple genome and methylome dynamics of early fruit development. Nat Genet Jul, 49 (7):1099-1106. |
[7] |
Di Laurenzio L, Wysocka-Diller J, Malamy J E, Pysh L, Helariutta Y, Freshour G, Hahn M G, Feldmann K A, Benfey P N. 1996. The SCARECROW gene regulates an asymmetric cell division that is essential for generating the radial organization of the Arabidopsis root. Cell, 86 (3):423-433.
doi: 10.1016/s0092-8674(00)80115-4 pmid: 8756724 |
[8] |
Fan S, Zhang D, Gao C, Zhao M, Wu H, Li Y, Shen Y, Han M. 2017. Identification,classification,and expression analysis of GRAS gene family in Malus domestica. Front Physiol, 8:253.
doi: 10.3389/fphys.2017.00253 URL |
[9] |
Frigerio M, Alabadí D, Pérez-Gómez J, García-Cárcel L, Phillips A L, Hedden P, Blázquez M A. 2006. Transcriptional regulation of gibberellin metabolism genes by auxin signaling in Arabidopsis. Plant Physiol, 142 (2):553-563.
doi: 10.1104/pp.106.084871 pmid: 16905669 |
[10] |
Fu X, Harberd N P. 2003. Auxin promotes Arabidopsis root growth by modulating gibberellin response. Nature, 421 (6924):740-743.
doi: 10.1038/nature01387 URL |
[11] |
Hou X, Lee L Y, Xia K, Yan Y, Yu H. 2010. DELLAs modulate jasmonate signaling via competitive binding to JAZs. Dev Cell, 19 (6):884-894.
doi: 10.1016/j.devcel.2010.10.024 pmid: 21145503 |
[12] |
Liu X, Widmer A. 2014. Genome-wide comparative analysis of the gras gene family in populus,Arabidopsis and rice. Plant Molecular Biology Reporter, 32 (6):1129-1145.
doi: 10.1007/s11105-014-0721-5 URL |
[13] |
Liu Y, Huang W, Xian Z, Hu N, Lin D, Ren H, Chen J, Su D, Li Z. 2017. Overexpression of SlGRAS40 in tomato enhances tolerance to abiotic stresses and influences auxin and gibberellin signaling. Front Plant Sci, 8:1659.
doi: 10.3389/fpls.2017.01659 URL |
[14] |
Lu X, Liu W, Xiang C, Li X, Zhang W. 2020. Genome-wide characterization of gras family and their potential roles in cold tolerance of cucumber (Cucumis sativus L.). International Journal of Molecular Sciences, 21 (11):3857.
doi: 10.3390/ijms21113857 URL |
[15] |
Marchler-Bauer A, Bo Y, Han L, He J, Lanczycki C J, Lu S, Chitsaz F, Derbyshire M K, Geer R C, Gonzales N R, Gwadz M, Hurwitz D I, Lu F, Marchler G H, Song J S, Thanki N, Wang Z, Yamashita R A, Zhang D, Zheng C, Geer LY, Bryant S H. 2017. CDD/SPARCLE:functional classification of proteins via subfamily domain architectures. Nucleic Acids Res, 45 (D1):D200-D203.
doi: 10.1093/nar/gkw1129 URL |
[16] |
Morohashi K, Minami M, Takase H, Hotta Y, Hiratsuka K. 2003. Isolation and characterization of a novel GRAS gene that regulates meiosis-associated gene expression. J Biol Chem, 278 (23):20865-20873.
doi: 10.1074/jbc.M301712200 pmid: 12657631 |
[17] | Niu Yiling, Jiang Xiuming, Xu Xiangyang. 2016. Bioinformatics analysis of tomato gras transcription factor family. Chinese Agricultural Science Bulletin, 32 (21):106-116. (in Chinese) |
牛义岭, 姜秀明, 许向阳. 2016. 番茄gras转录因子家族的生物信息学分析. 中国农学通报, 32 (21):106-116.
doi: 10.11924/j.issn.1000-6850.casb16040091 |
|
[18] |
O'Neill D P, Ross J J. 2002. Auxin regulation of the gibberellin pathway in pea. Plant Physiol, 130 (4):1974-1982.
pmid: 12481080 |
[19] |
Pierik R, Djakovic-Petrovic T, Keuskamp D H, de Wit M, Voesenek L A. 2009. Auxin and ethylene regulate elongation responses to neighbor proximity signals independent of gibberellin and della proteins in Arabidopsis. Plant Physiol, 149 (4):1701-1712.
doi: 10.1104/pp.108.133496 URL |
[20] |
Pysh L D, Wysocka-Diller J W, Camilleri C, Bouchez D, Benfey P N. 1999. The GRAS gene family in Arabidopsis:sequence characterization and basic expression analysis of the SCARECROW-LIKE genes. Plant J, 18 (1):111-119.
pmid: 10341448 |
[21] |
Sun X, Jones W T, Harvey D, Edwards P J, Pascal S M, Kirk C, Considine T, Sheerin D J, Rakonjac J, Oldfield C J, Xue B, Dunker A K, Uversky V N. 2010. N-terminal domains of DELLA proteins are intrinsically unstructured in the absence of interaction with GID1/gibberellic acid receptors. J Biol Chem, 285 (15):11557-11571.
doi: 10.1074/jbc.M109.027011 pmid: 20103592 |
[22] |
Sun X, Xue B, Jones W T, Rikkerink E, Dunker A K, Uversky V N. 2011. A functionally required unfoldome from the plant kingdom:intrinsically disordered N-terminal domains of GRAS proteins are involved in molecular recognition during plant development. Plant Mol Biol, 77 (3):205-223.
doi: 10.1007/s11103-011-9803-z URL |
[23] |
Tian C, Wan P, Sun S, Li J, Chen M. 2004. Genome-wide analysis of the GRAS gene family in rice and Arabidopsis. Plant Molecular Biology, 54 (4):519-532.
doi: 10.1023/B:PLAN.0000038256.89809.57 URL |
[24] | Tian Zengzhi, He Zihang, Wang Zhibo, Zhang Qun, Wang Chao, Ji Xiaoyu. 2021. Expression pattern and salt tolerance analysis of BpPAT1 gene in Betula platyphylla. Journal of Beijing Forestry University, 43 (10):18-27. (in Chinese) |
田增智, 贺子航, 王智博, 张群, 王超, 及晓宇. 2021. 白桦BpPAT1基因的表达模式及耐盐性分析. 北京林业大学学报, 43 (10):18-27. | |
[25] | To V T, Shi Q, Zhang Y, Shi J, Cai W. 2020. Genome-wide analysis of the gras gene family in barley(Hordeum vulgare L.). Genes,doi: 10.3390/genes11050553. |
[26] |
Torres-Galea P, Hirtreiter B, Bolle C. 2013. Two GRAS proteins,SCARECROW-LIKE21 and PHYTOCHROME A SIGNAL TRANSDUCTION1,function cooperatively in phytochrome A signal transduction. Plant Physiology, 161 (1):291-304.
doi: 10.1104/pp.112.206607 pmid: 23109688 |
[27] |
Wang T T, Yu T F, Fu J D, Su H G, Xu Z S. 2020. Genome-wide analysis of the gras gene family and functional identification of gmgras 37 in drought and salt tolerance. Frontiers in Plant Science, 11:604690.
doi: 10.3389/fpls.2020.604690 URL |
[28] |
Wang Y, Deng D. 2014. Molecular basis and evolutionary pattern of GA-GID1-DELLA regulatory module. Mol Genet Genomics, 89 (1):1-9.
doi: 10.1007/BF00888496 URL |
[29] |
Wen X, Sun L, Chen Y, Xue P, Yang Q, Wang B, Yu N, Cao Y, Zhang Y, Gong K, Wu W, Chen D, Cao L, Cheng S, Zhang Y, Zhan X. 2020. Rice dwarf and low tillering 10(OsDLT10)regulates tiller number by monitoring auxin homeostasis. Plant Sci, 297:110502.
doi: 10.1016/j.plantsci.2020.110502 URL |
[30] | Yang Li, Chen Dongliang, Peng Zhenhua, Zhao Hansheng, Gao Zhimin. 2014. Cloning of transcription factor DlSCL 6 from Dendrocalamus latiflorus and its ectopic expression in Arabidopsis thaliana. Scientia Silvae Sinicae, 50 (11):52-57. (in Chinese) |
杨丽, 陈东亮, 彭镇华, 赵韩生, 高志民. 2014. 麻竹转录因子DlSCL6的基因克隆及在拟南芥中异位表达. 林业科学, 50 (11):52-57. | |
[31] |
Yang M, Yang Q, Fu T, Zhou Y. 2011. Overexpression of the Brassica napus BnLAS gene in Arabidopsis affects plant development and increases drought tolerance. Plant Cell Rep, 30 (3):373-388.
doi: 10.1007/s00299-010-0940-7 URL |
[32] | Yin Longfei, Zhang Zhongbao, Yu Rong, Wu Zhongyi. 2019. Progress of the structural and functional analysis of GRAS gene in plants. Molecular Plant Breeding, 17 (19):6323-6331. (in Chinese) |
殷龙飞, 张中保, 于荣, 吴忠义. 2019. 植物GRAS家族蛋白结构和功能的研究进展. 分子植物育种, 17 (19):6323-6331. | |
[33] |
Zhang Huanxin, Dong Chunjuan, Shang Qingmao. 2017. Genome-wide identification and expression analysis of GRAS gene family in pepper. Acta Horticulturae Sinica, 44 (12):2305-2317. (in Chinese)
doi: 10.16420/j.issn.0513-353x.2017-0132 |
张焕欣, 董春娟, 尚庆茂. 2017. 辣椒GRAS家族全基因组鉴定与表达分析. 园艺学报, 44 (12):2305-2317.
doi: 10.16420/j.issn.0513-353x.2017-0132 |
|
[34] | Zhang Miaomiao, Yu Jiangshan, Shi Jiang, Yang Yu, Meng Xue, Sun Wei, Wan Huihua, Xue Jianping. 2021. Study on GRAS transcription factors of cannabis genome. Chinese Traditional and Herbal Drugs, 52:1423-1433. (in Chinese) |
张苗苗, 于江珊, 施江, 杨雨, 孟雪, 孙伟, 万会花, 薛建平. 2021. 大麻GRAS转录因子全基因组研究. 中草药, 52:1423-1433. | |
[35] | Zhao Xianyan, Zhao Qiang, Liu Xin, Hao Yujin, You Chunxiang. 2015. Ectopic expression and functional research of apple MdDRB1gene in tomato. Journal of Fruit Science,(2):177-185,349. (in Chinese) |
赵先炎, 赵强, 刘鑫, 郝玉金, 由春香. 2015. 苹果MdDRB1基因在番茄中异位表达与功能研究. 果树学报,(2):177-185,349. |
[1] | 饶智雄, 安玉艳, 曹荣祥, 唐泉, 汪良驹. 外源ALA缓解ABA抑制草莓根系伸长生长的机理研究[J]. 园艺学报, 2023, 50(3): 461-474. |
[2] | 宁源生, 李欢, 宋建飞, 于婷婷, 韩梦圆, 彭璐琳, 贾竣淇, 张玮玮, 杨洪强. 苹果NCL家族基因与根系细胞钙离子浓度变化的关系[J]. 园艺学报, 2023, 50(3): 475-484. |
[3] | 郑清波, 鲍泽洋, 蓝青青, 周钰雯, 周雨菲, 郑彩霞, 李旭. 童性与生长素对不定根发生的影响研究进展[J]. 园艺学报, 2023, 50(2): 441-450. |
[4] | 袁馨, 徐云鹤, 张雨培, 单楠, 陈楚英, 万春鹏, 开文斌, 翟夏琬, 陈金印, 甘增宇. 猕猴桃后熟过程中ABA响应结合因子AcAREB1调控AcGH3.1的表达[J]. 园艺学报, 2023, 50(1): 53-64. |
[5] | 韩晓蕾, 张彩霞, 刘 锴, 杨 安, 严家帝, 李武兴, 康立群, 丛佩华. 中熟苹果新品种‘中苹优蕾’[J]. 园艺学报, 2022, 49(S2): 1-2. |
[6] | 韩晓蕾, 张彩霞, 刘 锴, 严家帝, 李武兴, 康立群, 丛佩华. 中熟苹果新品种‘苹优2号’[J]. 园艺学报, 2022, 49(S1): 1-2. |
[7] | 王 强, 丛佩华, 刘肖烽. 晚熟苹果新品种‘华优甜娃’[J]. 园艺学报, 2022, 49(S1): 3-4. |
[8] | 王 强, 丛佩华, 刘肖烽. 中熟苹果新品种‘华优宝蜜’[J]. 园艺学报, 2022, 49(S1): 5-6. |
[9] | 杨 玲, 丛佩华, 王 强, 李武兴, 康立群. 中熟鲜食苹果新品种‘华丰’[J]. 园艺学报, 2022, 49(S1): 7-8. |
[10] | 胡若琳, 王佳丽, 杨慧勤, 袁超, 牛义, 汤青林, 魏大勇, 田时炳, 杨洋, 王志敏. 茄子生长素响应因子SmARF5对分枝发育的影响[J]. 园艺学报, 2022, 49(9): 1895-1906. |
[11] | 丁志杰, 包金波, 柔鲜古丽, 朱甜甜, 李雪丽, 苗浩宇, 田新民. 新疆野苹果与‘元帅’‘金冠’的叶绿体基因组比对研究[J]. 园艺学报, 2022, 49(9): 1977-1990. |
[12] | 高彦龙, 吴玉霞, 张仲兴, 王双成, 张瑞, 张德, 王延秀. 苹果ELO家族基因鉴定及其在低温胁迫下的表达分析[J]. 园艺学报, 2022, 49(8): 1621-1636. |
[13] | 郑晓东, 袭祥利, 李玉琪, 孙志娟, 马长青, 韩明三, 李少旋, 田义轲, 王彩虹. 油菜素内酯对盐碱胁迫下平邑甜茶幼苗生长的影响及调控机理研究[J]. 园艺学报, 2022, 49(7): 1401-1414. |
[14] | 夏炎, 黄松, 武雪莉, 刘一琪, 王苗苗, 宋春晖, 白团辉, 宋尚伟, 庞宏光, 焦健, 郑先波. 基于宏病毒组测序技术的苹果病毒病鉴定与分析[J]. 园艺学报, 2022, 49(7): 1415-1428. |
[15] | 钱婕妤, 蒋玲莉, 郑钢, 陈佳红, 赖吴浩, 许梦晗, 付建新, 张超. 百日草花青素苷合成相关MYB转录因子筛选及ZeMYB9功能研究[J]. 园艺学报, 2022, 49(7): 1505-1518. |
阅读次数 | ||||||
全文 |
|
|||||
摘要 |
|
|||||
版权所有 © 2012 《园艺学报》编辑部 京ICP备10030308号-2 国际联网备案号 11010802023439
编辑部地址: 北京市海淀区中关村南大街12号中国农业科学院蔬菜花卉研究所 邮编: 100081
电话: 010-82109523 E-Mail: yuanyixuebao@126.com
技术支持:北京玛格泰克科技发展有限公司