植物学报 ›› 2015, Vol. 50 ›› Issue (5): 549-564.DOI: 10.11983/CBB15164
刘勉1,2, 张彩飞1,2,,A;*, 黄建勋1,2, 马红1,2,,A;*
收稿日期:
2015-08-15
接受日期:
2015-09-05
出版日期:
2015-09-01
发布日期:
2015-10-09
通讯作者:
张彩飞,马红
作者简介:
? 共同第一作者
基金资助:
Mian Liu1,2, Caifei Zhang1,2*, Chien-Hsun Huang1,2, Hong Ma1,2*
Received:
2015-08-15
Accepted:
2015-09-05
Online:
2015-09-01
Published:
2015-10-09
Contact:
Zhang Caifei,Ma Hong
About author:
? These authors contributed equally to this paper
摘要: 紫菀亚科(Asteroideae)是菊科最大的一个亚科, 包含的种数多于被子植物的绝大多数科。目前, 紫菀亚科族间的系统发育关系主要依赖于叶绿体基因信息, 但是叶绿体基因为单亲遗传, 并不能完整反映进化历史。鉴于杂交现象在菊科普遍存在, 故利用核基因可以反映更完整的紫菀亚科进化历史。该研究首次使用从转录组数据(20个新测+11个从NCBI数据库下载)中筛选出的47个直系同源低拷贝核基因来研究紫菀亚科的系统发育关系, 共选取了29个物种, 代表了紫菀亚科20个族中的13个族。用超矩阵分析方法和溯祖推测分析方法各获得了1个稳定的紫菀亚科系统树, 每个树上绝大多数分支都得到了高度支持, 且2个树之间没有明显的冲突。新的紫菀亚科族间系统发育关系揭示了千里光超族应并入紫菀超族, 春黄菊族可能是千里光族与紫菀族杂交起源的, 金鸡菊族很可能也是杂交起源的。该研究结果显示低拷贝核基因可以更好地解决科以下分类阶元的系统发育关系, 对菊科乃至被子植物其它科的系统发育研究具有重要的借鉴意义。
刘勉, 张彩飞, 黄建勋, 马红. 利用低拷贝核基因重建菊科紫菀亚科族间系统发育关系. 植物学报, 2015, 50(5): 549-564.
Mian Liu, Caifei Zhang, Chien-Hsun Huang, Hong Ma. Phylogenetic Reconstruction of Tribal Relationships in Asteroi- deae (Asteraceae) with Low-copy Nuclear Genes. Chinese Bulletin of Botany, 2015, 50(5): 549-564.
Tribe | Species | Locality | Accession No. | Voucher |
---|---|---|---|---|
Anthemideae | Achillea millefolium | Campus of Penn State University, USA | - | Zhang Ning, B20AM |
Anthemideae | Artemisia chamaemelifolia | NCBI | SRX096997 | - |
Anthemideae | Tanacetum parthenium | NCBI | ERX337163 | - |
Astereae | Symphyotrichum subulatum | Chenshan Botanical Garden, Shanghai | - | Liu Mian, CSLM02 |
Astereae | Eurybia divaricata | Campus of Penn State University, USA | - | Ma Hong, HM213 |
Astereae | Solidago gigantea | Penn State College, USA | - | Ma Hong, HM157 |
Athroismeae | Centipeda minima | Beijing Botanical Garden of CAS | - | Gao Tiangang, GTG03 |
Calenduleae | Osteospermum jucundum | Glasgow, UK | - | Ma Hong, HM366 |
Calenduleae | Calendula officinalis | Beijing Botanical Garden, Beijing | - | Zhang Caifei, 3395 |
Cichorieae | Sonchus asper | Campus of Penn State University, USA | - | Zhang Ning, A10SA |
Cichorieae | Lactuca serriola | NCBI | SRX098217 | - |
Coreopsideae | Cosmos bipinnatus | Xuancheng, Anhui | - | Liu Mian, AH06 |
Coreopsideae | Bidens frondosa | Campus of Penn State College, USA | - | Ma Hong, HM208 |
Eupatorieae | Stevia rebaudiana | NCBI | - | - |
Eupatorieae | Ageratum conyzoides | Mt. Tianmu, Zhejiang | SRX255224 | Liu Mian, TMS08 |
Eupatorieae | Mikania micrantha | Indonesia | - | Gao Tiangang, GTG5498 |
Gnaphalieae | Helichrysum petiolare | NCBI | SRX202783 | - |
Gnaphalieae | Leontopodium smithianum | Mt. Dongling, Beijing | - | Yang Ji, YJ08 |
Helenieae | Gaillardia pulchella | Chenshan Botanical Garden, Shanghai | - | Liu Mian, CSLM07 |
Heliantheae | Helianthus tuberosus | Mt. Tianmu, Zhejiang | - | Liu Mian, TMS15 |
Heliantheae | Iva annua | NCBI | SRX255215 | - |
Heliantheae | Echinacea purpurea | NCBI | SRX085117 | - |
Inuleae | Duhaldea cappa | Campus of Nanjing University, Nanjing | - | Yang Ji, YJLM09 |
Inuleae | Inula linariifolia | Mt. Zijin, Nanjing | - | Liu Mian, YJLM04 |
Madieae | Arnica montana | NCBI | SRX096987 | - |
Millerieae | Sigesbeckia pubescens | Mt. Tianmu, Zhejiang | - | Liu Mian, TMS01 |
Millerieae | Galinsoga quadriradiata | Mt. Tianmu, Zhejiang | - | Liu Mian, TMS02 |
Millerieae | Guizotia scabra | NCBI | SRX255223 | - |
Senecioneae | Euryops pectinatus | Campus of Fudan University, Shanghai | - | Liu Mian, FDU01 |
Senecioneae | Senecio aethnensis | NCBI | SRX328503 | - |
Senecioneae | Petasites hybridus | NCBI | SRX096999 | - |
表1 实验材料及其相关信息
Table 1 Samples used in this study and their information
Tribe | Species | Locality | Accession No. | Voucher |
---|---|---|---|---|
Anthemideae | Achillea millefolium | Campus of Penn State University, USA | - | Zhang Ning, B20AM |
Anthemideae | Artemisia chamaemelifolia | NCBI | SRX096997 | - |
Anthemideae | Tanacetum parthenium | NCBI | ERX337163 | - |
Astereae | Symphyotrichum subulatum | Chenshan Botanical Garden, Shanghai | - | Liu Mian, CSLM02 |
Astereae | Eurybia divaricata | Campus of Penn State University, USA | - | Ma Hong, HM213 |
Astereae | Solidago gigantea | Penn State College, USA | - | Ma Hong, HM157 |
Athroismeae | Centipeda minima | Beijing Botanical Garden of CAS | - | Gao Tiangang, GTG03 |
Calenduleae | Osteospermum jucundum | Glasgow, UK | - | Ma Hong, HM366 |
Calenduleae | Calendula officinalis | Beijing Botanical Garden, Beijing | - | Zhang Caifei, 3395 |
Cichorieae | Sonchus asper | Campus of Penn State University, USA | - | Zhang Ning, A10SA |
Cichorieae | Lactuca serriola | NCBI | SRX098217 | - |
Coreopsideae | Cosmos bipinnatus | Xuancheng, Anhui | - | Liu Mian, AH06 |
Coreopsideae | Bidens frondosa | Campus of Penn State College, USA | - | Ma Hong, HM208 |
Eupatorieae | Stevia rebaudiana | NCBI | - | - |
Eupatorieae | Ageratum conyzoides | Mt. Tianmu, Zhejiang | SRX255224 | Liu Mian, TMS08 |
Eupatorieae | Mikania micrantha | Indonesia | - | Gao Tiangang, GTG5498 |
Gnaphalieae | Helichrysum petiolare | NCBI | SRX202783 | - |
Gnaphalieae | Leontopodium smithianum | Mt. Dongling, Beijing | - | Yang Ji, YJ08 |
Helenieae | Gaillardia pulchella | Chenshan Botanical Garden, Shanghai | - | Liu Mian, CSLM07 |
Heliantheae | Helianthus tuberosus | Mt. Tianmu, Zhejiang | - | Liu Mian, TMS15 |
Heliantheae | Iva annua | NCBI | SRX255215 | - |
Heliantheae | Echinacea purpurea | NCBI | SRX085117 | - |
Inuleae | Duhaldea cappa | Campus of Nanjing University, Nanjing | - | Yang Ji, YJLM09 |
Inuleae | Inula linariifolia | Mt. Zijin, Nanjing | - | Liu Mian, YJLM04 |
Madieae | Arnica montana | NCBI | SRX096987 | - |
Millerieae | Sigesbeckia pubescens | Mt. Tianmu, Zhejiang | - | Liu Mian, TMS01 |
Millerieae | Galinsoga quadriradiata | Mt. Tianmu, Zhejiang | - | Liu Mian, TMS02 |
Millerieae | Guizotia scabra | NCBI | SRX255223 | - |
Senecioneae | Euryops pectinatus | Campus of Fudan University, Shanghai | - | Liu Mian, FDU01 |
Senecioneae | Senecio aethnensis | NCBI | SRX328503 | - |
Senecioneae | Petasites hybridus | NCBI | SRX096999 | - |
图2 用于筛选直系同源基因的紫菀亚科物种参照树 在这个参照树中, 对族间关系和族内的属间关系不作具体限定。
Figure 2 Reference species tree of Asteroideae for selecting orthologous genesIn this tree, the relationships among the tribes, or those between genera of the same tribe, are not specified.
Unigene | Length (bp) | VS | VS (%) | IS | IS (%) | MS (%) |
---|---|---|---|---|---|---|
433680 | 1 290 | 809 | 62.71 | 637 | 49.38 | 1.67 |
433783 | 462 | 293 | 63.42 | 228 | 49.35 | 0.89 |
433651 | 1 158 | 656 | 56.65 | 530 | 45.77 | 4.54 |
435322 | 1 281 | 716 | 55.89 | 553 | 43.17 | 3.74 |
435258 | 1 236 | 707 | 57.20 | 518 | 41.91 | 13.26 |
431587 | 864 | 479 | 55.44 | 362 | 41.90 | 2.49 |
432845 | 675 | 368 | 54.52 | 276 | 40.89 | 1.81 |
431540 | 1 152 | 637 | 55.30 | 470 | 40.80 | 3.73 |
432103 | 741 | 394 | 53.17 | 296 | 39.95 | 8.29 |
435225 | 1 395 | 765 | 54.84 | 539 | 38.64 | 16.34 |
432720 | 1 104 | 575 | 52.08 | 408 | 36.96 | 7.53 |
432475 | 828 | 402 | 48.55 | 305 | 36.84 | 4.98 |
432118 | 588 | 317 | 53.91 | 215 | 36.56 | 4.30 |
435156 | 1 740 | 913 | 52.47 | 634 | 36.44 | 22.01 |
435256 | 885 | 436 | 49.27 | 322 | 36.38 | 3.75 |
435114 | 1 140 | 547 | 47.98 | 406 | 35.61 | 3.58 |
434310 | 993 | 459 | 46.22 | 353 | 35.55 | 5.39 |
432389 | 1 902 | 928 | 48.79 | 675 | 35.49 | 5.17 |
435299 | 591 | 290 | 49.07 | 209 | 35.36 | 3.59 |
432317 | 1 320 | 624 | 47.27 | 463 | 35.08 | 3.20 |
435127 | 1 569 | 730 | 46.53 | 550 | 35.05 | 10.70 |
435193 | 1 491 | 799 | 53.59 | 522 | 35.01 | 10.09 |
435154 | 1 374 | 663 | 48.25 | 478 | 34.79 | 4.13 |
431821 | 1 323 | 621 | 46.94 | 459 | 34.69 | 5.00 |
433235 | 1 560 | 696 | 44.62 | 538 | 34.49 | 2.20 |
434795 | 1 164 | 525 | 45.10 | 394 | 33.85 | 2.46 |
435112 | 2 835 | 1332 | 46.98 | 949 | 33.47 | 19.43 |
433741 | 777 | 326 | 41.96 | 259 | 33.33 | 3.40 |
432132 | 807 | 362 | 44.86 | 267 | 33.09 | 3.22 |
433969 | 684 | 303 | 44.30 | 225 | 32.89 | 0.22 |
433433 | 1 362 | 557 | 40.90 | 441 | 32.38 | 0.23 |
435159 | 558 | 244 | 43.73 | 178 | 31.90 | 4.09 |
433560 | 951 | 425 | 44.69 | 303 | 31.86 | 2.42 |
432107 | 1 188 | 473 | 39.81 | 376 | 31.65 | 1.30 |
432280 | 1 209 | 506 | 41.85 | 381 | 31.51 | 2.13 |
433255 | 795 | 318 | 40.00 | 249 | 31.32 | 1.41 |
435277 | 1 359 | 552 | 40.62 | 419 | 30.83 | 2.44 |
435118 | 876 | 388 | 44.29 | 268 | 30.59 | 2.46 |
433710 | 969 | 414 | 42.72 | 294 | 30.34 | 1.81 |
432233 | 1 059 | 455 | 42.97 | 319 | 30.12 | 3.78 |
432926 | 1 014 | 442 | 43.59 | 299 | 29.49 | 5.14 |
433740 | 726 | 285 | 39.26 | 212 | 29.20 | 0.95 |
433176 | 789 | 329 | 41.70 | 226 | 28.64 | 1.08 |
434314 | 942 | 436 | 46.28 | 269 | 28.56 | 3.59 |
435311 | 444 | 165 | 37.16 | 125 | 28.15 | 0.20 |
434176 | 1 296 | 482 | 37.19 | 351 | 27.08 | 3.19 |
433486 | 741 | 292 | 39.41 | 194 | 26.18 | 0.38 |
Average | 1 090 | 520 | 47.53 | 382 | 34.95 | 4.63 |
表2 47个核基因的系统学信息
Table 2 The systematic information of 47 unigene matrices, respectively
Unigene | Length (bp) | VS | VS (%) | IS | IS (%) | MS (%) |
---|---|---|---|---|---|---|
433680 | 1 290 | 809 | 62.71 | 637 | 49.38 | 1.67 |
433783 | 462 | 293 | 63.42 | 228 | 49.35 | 0.89 |
433651 | 1 158 | 656 | 56.65 | 530 | 45.77 | 4.54 |
435322 | 1 281 | 716 | 55.89 | 553 | 43.17 | 3.74 |
435258 | 1 236 | 707 | 57.20 | 518 | 41.91 | 13.26 |
431587 | 864 | 479 | 55.44 | 362 | 41.90 | 2.49 |
432845 | 675 | 368 | 54.52 | 276 | 40.89 | 1.81 |
431540 | 1 152 | 637 | 55.30 | 470 | 40.80 | 3.73 |
432103 | 741 | 394 | 53.17 | 296 | 39.95 | 8.29 |
435225 | 1 395 | 765 | 54.84 | 539 | 38.64 | 16.34 |
432720 | 1 104 | 575 | 52.08 | 408 | 36.96 | 7.53 |
432475 | 828 | 402 | 48.55 | 305 | 36.84 | 4.98 |
432118 | 588 | 317 | 53.91 | 215 | 36.56 | 4.30 |
435156 | 1 740 | 913 | 52.47 | 634 | 36.44 | 22.01 |
435256 | 885 | 436 | 49.27 | 322 | 36.38 | 3.75 |
435114 | 1 140 | 547 | 47.98 | 406 | 35.61 | 3.58 |
434310 | 993 | 459 | 46.22 | 353 | 35.55 | 5.39 |
432389 | 1 902 | 928 | 48.79 | 675 | 35.49 | 5.17 |
435299 | 591 | 290 | 49.07 | 209 | 35.36 | 3.59 |
432317 | 1 320 | 624 | 47.27 | 463 | 35.08 | 3.20 |
435127 | 1 569 | 730 | 46.53 | 550 | 35.05 | 10.70 |
435193 | 1 491 | 799 | 53.59 | 522 | 35.01 | 10.09 |
435154 | 1 374 | 663 | 48.25 | 478 | 34.79 | 4.13 |
431821 | 1 323 | 621 | 46.94 | 459 | 34.69 | 5.00 |
433235 | 1 560 | 696 | 44.62 | 538 | 34.49 | 2.20 |
434795 | 1 164 | 525 | 45.10 | 394 | 33.85 | 2.46 |
435112 | 2 835 | 1332 | 46.98 | 949 | 33.47 | 19.43 |
433741 | 777 | 326 | 41.96 | 259 | 33.33 | 3.40 |
432132 | 807 | 362 | 44.86 | 267 | 33.09 | 3.22 |
433969 | 684 | 303 | 44.30 | 225 | 32.89 | 0.22 |
433433 | 1 362 | 557 | 40.90 | 441 | 32.38 | 0.23 |
435159 | 558 | 244 | 43.73 | 178 | 31.90 | 4.09 |
433560 | 951 | 425 | 44.69 | 303 | 31.86 | 2.42 |
432107 | 1 188 | 473 | 39.81 | 376 | 31.65 | 1.30 |
432280 | 1 209 | 506 | 41.85 | 381 | 31.51 | 2.13 |
433255 | 795 | 318 | 40.00 | 249 | 31.32 | 1.41 |
435277 | 1 359 | 552 | 40.62 | 419 | 30.83 | 2.44 |
435118 | 876 | 388 | 44.29 | 268 | 30.59 | 2.46 |
433710 | 969 | 414 | 42.72 | 294 | 30.34 | 1.81 |
432233 | 1 059 | 455 | 42.97 | 319 | 30.12 | 3.78 |
432926 | 1 014 | 442 | 43.59 | 299 | 29.49 | 5.14 |
433740 | 726 | 285 | 39.26 | 212 | 29.20 | 0.95 |
433176 | 789 | 329 | 41.70 | 226 | 28.64 | 1.08 |
434314 | 942 | 436 | 46.28 | 269 | 28.56 | 3.59 |
435311 | 444 | 165 | 37.16 | 125 | 28.15 | 0.20 |
434176 | 1 296 | 482 | 37.19 | 351 | 27.08 | 3.19 |
433486 | 741 | 292 | 39.41 | 194 | 26.18 | 0.38 |
Average | 1 090 | 520 | 47.53 | 382 | 34.95 | 4.63 |
图3 基于47个核基因联合矩阵得到的29个紫菀亚科物种的最大似然系统树 分支上的数字分别表示ML/Bayesian分析得到的支持率及后验概率。星号代表自展支持率和后验概率分别为100%和1.0。
Figure 3 A maximum likelihood tree using 47 nuclear genes for 29 Asteroideae species The numbers on each node are support values of ML and Bayesian analyses, respectively. Asterisks stand for bootstrap of 100% or posterior probability of 1.0.
图4 基于47个基因树溯祖推测得到的紫菀亚科物种树 分支上的数字表示自展分析的支持率。星号代表自展支持率为100%。
Figure 4 Coalescent-based species tree of Asteroideae estimated from 47 gene treesThe numbers on each node are bootstrap support values. Asterisks stand for bootstrap of 100%.
图5 基于不同数据集的紫菀亚科族间系统发育关系比较 (A) 基于叶绿体基因的系统发育树示意图(改自Panero和Funk (2002, 2008)及Panero等(2014)); (B) 本研究获得的联合47个低拷贝核基因的系统发育树示意图。所有分支的MP或ML自展支持率均≥70%。阴影部分表示两个树上有明显冲突的地方。
Figure 5 Comparison of Intertribal phylogenies of Asteroideae based on different data sets(A) Cladogram based on chloroplast genes (revised from Panero and Funk (2002, 2008) and Panero et al. (2014)); (B) Cladogram based on concatenated alignment of 47 nuclear genes used by present work. For all clades, bootstrap values of MP or ML analyses are all ≥70%. The shaded areas show obvious incongruences on both trees.
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