Literature DB >> 26286044

Molecular and morphological data supporting phylogenetic reconstruction of the genus Goniothalamus (Annonaceae), including a reassessment of previous infrageneric classifications.

Chin Cheung Tang1, Daniel C Thomas2, Richard M K Saunders1.   

Abstract

Data is presented in support of a phylogenetic reconstruction of the species-rich early-divergent angiosperm genus Goniothalamus (Annonaceae) (Tang et al., Mol. Phylogenetic Evol., 2015) [1], inferred using chloroplast DNA (cpDNA) sequences. The data includes a list of primers for amplification and sequencing for nine cpDNA regions: atpB-rbcL, matK, ndhF, psbA-trnH, psbM-trnD, rbcL, trnL-F, trnS-G, and ycf1, the voucher information and molecular data (GenBank accession numbers) of 67 ingroup Goniothalamus accessions and 14 outgroup accessions selected from across the tribe Annoneae, and aligned data matrices for each gene region. We also present our Bayesian phylogenetic reconstructions for Goniothalamus, with information on previous infrageneric classifications superimposed to enable an evaluation of monophyly, together with a taxon-character data matrix (with 15 morphological characters scored for 66 Goniothalamus species and seven other species from the tribe Annoneae that are shown to be phylogenetically correlated).

Entities:  

Year:  2015        PMID: 26286044      PMCID: PMC4532731          DOI: 10.1016/j.dib.2015.06.021

Source DB:  PubMed          Journal:  Data Brief        ISSN: 2352-3409


Specifications table Value of the data Data provides a summary of taxa and chloroplast DNA (cpDNA) regions and aligned data matrices that can be used for the phylogenetic reconstruction of Goniothalamus (Annonaceae tribe Annoneae) [1]. Data provides a summary of morphological characters relevant to species in the tribe Annoneae that are important for broader morphological evolutionary studies. Comparisons between the resultant phylogeny for Goniothalamus species with previous infrageneric classifications [2,3] enable an assessment of congruence between the phylogeny and the infrageneric classifications.

Data, experimental design, materials and methods

Primer design and summary

Available sequences of nine chloroplast DNA (cpDNA) regions: atpB-rbcL, matK, ndhF, psbA-trnH, psbM-trnD, rbcL, trnL-F, trnS-G, and ycf1 were downloaded from GenBank (https://www.ncbi.nlm.nih.gov/genbank/) for species of Goniothalamus and related species from Annonaceae tribe Annoneae. Alignment of each region was performed using MAFFT v.7.029b [4] with default settings and the automatic algorithm option. Each alignment was opened in Geneious v.5.4.3 [5] and “Design New Primer” analysis performed with the “Target Region” set as 300–400 bp and other settings kept as default using Primer3 [6,7]. The summary of primer sequences obtained from the analysis and from previous studies [8-18] are listed in Table 1.
Table 1

List of primers used for amplification and sequencing of nine DNA regions.

RegionPrimerSequence (5′–3′)Source
atpB-rbcLatpB-rbcL-2CCAACACTTGCTTTAGTCTCTG[14]
atpB-rbcL-c1bTGGATGAATTMTGGCCATTTTCACA[1]; this study
atpB-rbcL-c2aTGGCGCAACCCAATCTTGTT[1]; this study
atpB-rbcL-c2bAGTCGCGAGGAGGTTTTTCA[1]; this study
atpB-rbcL-c3aGGATGCTGAAATAAAGAACAACAGCCA[1]; this study
atpB-rbcL-c3bACGTCCAATAGCARGTTAATCGGT[1]; this study
atpB-rbcL-c4aTGGTGCCAACGAAATCAACCGCW[1]; this study
atpB-rbcL-3AGTGTGGAAACCCCAGGATCAGAAG[10]
matKmatK-1aTAATACCTCACCCCGTCCATCTGGDesigned by Y.C.F. Su
matK-c1bTGTGTTCGCTCGAGAACAGTTCCA[1]; this study
matK-c2aCCGTTTGTTCAAAAGAGAATCGGA[1]; this study
matK-11bRATCCTGTCCGGTTGAGACCACAADesigned by Y.C.F. Su
matK-449FAGAAATGGAAATCTTACCTTGTCC[17]
matK-824RATCCGCCCAAATYGATTGATAATA[17]
ndhFndhF-1FATGGAACAKACATATSAATATGC[9]
ndhF-c1bRCCTAAGATTCCTAATAATAAACCA[1]; this study
ndhF-c2aFTGGGAACTAGTGGGAATGTGCTCGT[1]; this study
ndhF-689RGGCATCRGGYAACCATACATGAAG[16]
ndhF-c1bFTGGTTTATTATTAGGAATCTTAGG[1]; this study
ndhF-c3bRGCAGCTCGATAAGAACCTATACCTRG[1]; this study
ndhF-972FGTCTCAATTGGGTTATATGATG[9]
ndhF-c4bRAYCCTRCCGCRGAAYAAGCT[1]; this study
ndhF-c5aFTGTGGTATTCCGCCCCTTGCT[1]; this study
ndhF-c5bRTGTCYGACTCATGGGGRTATGYRG[1]; this study
ndhF-LBCFTCAATAYCTATATGGGGGAAAG[16]
ndhF-c6bRATTGGTGGGGTTAAYARTTTYGAY[1]; this study
ndhF-c5bFCYRCATAYCCCCATGAGTCRGACA[1]; this study
ndhF-2210RCCCCCTAYATATTTGATACCTTCTCC[9]
psbA-trnHpsbAGTTATGCATGAACGTAATGCTC[19]
psbAtrnH-c1bTCGACCATGAACYCGYCARA[1]; this study
psbAtrnH-c2aGTTGTTGAAGGATCAGRTCAATGCCA[1]; this study
trnH(ham-GUG)CGCGCATGGTGGATTCACAATCC[13]
psbM-trnDpsbM-FAGCAATAAATGCRAGAATATTTACTTCCAT[15]
psbM-c1aTTCGGGATCTAATCCCATAGAAAWACT[1]; this study
psbM-c2aTYSRATCAGGAATCYCGTGG[1]; this study
psbM-c1bTGGAYCTGTGACCGATGTAAGACCG[1]; this study
psbM-c3aCCCTCGAAAGARRKRGGGCGK[1]; this study
psbM-c2bTCCAAGGAAGGAGGATACTGACCA[1]; this study
psbM-c4aACTCTGTCGCCGCCGAGATAAC[1]; this study
psbM-c3bAGARAGTGCCCATATGTTTTCCG[1]; this study
psbM-c5aAGGYGATACCAYCGCTCAATCC[1]; this study
psbM-c4b1AGGAGGGACAAGARGCAGGGC[1]; this study
psbM-c4b2TTCGAGCCCCGTCAGTCCCG[1]; this study
trnD(GUC)-RGGGATTGTAGYTCAATTGGT[15]
rbcLrbcL-7FGATTCAAAGCTGGTGTTAAAGAGT[17]
rbcL-c1bGGAATTCGCAAGTCYTCTAGGCGT[1]; this study
rbcL-c2aTCGAGCCTGTTGCTGGAGAGGA[1]; this study
rbcL-724RTCGCATGTACCTGCAGTAGC[11]
rbcL-c3aCGCCAAGAACTACGGTAGRGCG[1]; this study
rbcL-c3bTCCCGTTCCCCCTCCAGTTT[1]; this study
rbcL-4aGAGACAACGGCCTRCTTCTTCACADesigned by Y.C.F. Su
rbcL-5aATCGCGCAATGCATGCAGTTATDesigned by Y.C.F. Su
rbcL-5bACGTCCCTCATTCCGAGCTTGTADesigned by Y.C.F. Su
rbcL-c7aTCGGCGGAGGAACTTTAGGACA[1]; this study
rbcL-1381RTCGAATTCGAATTTGATCTCCTTC[17]
trnS-GtrnS(GCU)GCCGCTTTAGTCCACTCAGC[12]
trnSG-c1bASYGTTCAAACAAAGTTTTKATCACGA[1]; this study
trnSG-c2aTCYATTCCTAYGACAYTCACTCCTGT[1]; this study
trnSG-c2bTCGTTACTGAAGTTCCGKCTCG[1]; this study
trnSG-c3aCGGATTCTTGTACAACTCATTCTTCTG[1]; this study
trnG(UCC)GAACGAATCACACTTTTACCAC[12]
trnL-FtrnLF -13FGACGCTACGGACTTGATTGGATT[17]
trnLF-c1bTGACATGTAGAACGGGACTCTCTCT[1]; this study
trnLF-c2aACGTATACATAYCGTAGCATCAAACG[1]; this study
trnLF-c2bAYTCCTTGCCCATTCATTATCTGTTCA[1]; this study
trnLF-eGGTTCAAGTCCCTCTATCCC[8]
trnLF-960RAGCTATCCCGACCATTCTC[17]
ycf1ycf1-M935FAGAACAGTCGGACCAAAAGA[18]
ycf1-M1792RTGACATACTGAAACGACTGCC[18]

DNA sequencing and upload to GenBank

A modified cetyl trimethyl ammonium bromide (CTAB) method [17,20,21] was used for whole genomic DNA. The extracted DNA was amplified using polymerase chain reaction (PCR). 6.4 μl ddH2O, 1.5 μl MgCl2 (25 mM), 0.25 μl dNTPs (10 mM), 0.375 μl of each forward and reverse primer (10 μM each, listed in Table 1), 0.5 μl bovine serum albumin (BSA, 10 mg/ml), 0.1 μl Flexi-taq DNA polymerase (Promega, Madison, Wisconsin, U.S.A.), and 0.5 μl DNA template were added for each reaction. The following PCR protocol was adopted: 5 min template denaturation at 95 °C followed by 38 cycles of denaturation at 95 °C for 1 min; primer annealing at 50 °C for 1 min; primer extension at 65 °C for 4 min; with the final extension set to 65 °C for 5 min. PCR products were purified, amplified and sequenced by BGI (Hong Kong, PR China) using the BigDye Terminator Cycle Sequencing Kit (Applied Biosystems, Foster City, California, U.S.A.), with sequencing run on an AB 3730 DNA Analyzer (Applied Biosystems). The sequences were uploaded to GenBank (https://www.ncbi.nlm.nih.gov/genbank/). The summary of the taxon-sequence matrix showing the voucher information and molecular data (GenBank accession numbers) of 67 Goniothalamus accessions and 14 accessions in the tribe Annoneae of the family Annonaceae for the nine cpDNA regions is presented in Table 2.
Table 2

Summary of voucher information and GenBank accession numbers of the 81 accessions.

Voucher information
GenBank accession numbers
Taxon nameOriginVoucherCollection dateatpB-rbcLmatKndhFpsbA-trnHtrnL-FtrnS-Gycf1rbcLpsbM-trnD
Annona dumetorum R.E.Fr.Dominican RepublicAbbott, J.R. 20966 (FLAS)6 June 2006–GQ139704–EU420856EU420838–GU937352EU420856–
Annona glabra L.USAChatrou, L.W. 467 (U)EF179246GQ139717EF179281AY841596AY841673EF179323GU937365AY841596–
Annona herzogii (R.E.Fr.) H.RainerBoliviaChatrou, L.W. et al. 347 (U)EF179273DQ125062EF179308AY841656AY841734EF179350–AY841656–
Annona mucosa Jacq.Abbott, J.R. 21032 (FLAS)–GQ139705–EU420870EU420852–GU937353EU420870–
Annona muricata L.Chatrou, L.W. 468 (U)EF179247AF543722EF179282AY743440AY743459EF179324–AY743440–
Annona reticulata Sieber ex A.DC.BoliviaChatrou, L.W. et al. 290 (U)–JQ586491–EU420863EU420845––EU420863–
Annona squamosa L.Nakkuntod, M. 45 (BCU)–EU715064–EU420865EU420847––EU420865–
Anonidium sp. Cheek 7896CameroonCheek, M. 7896 (K)EF179248DQ125051EF179283AY841598AY841675EF179325–AY841598–
Asimina longifolia KralUSAWeerasooriya, A.D. s.n. (MISS)EF179251GQ139707EF179286DQ124939GQ139885EF179328GU937355DQ124939–
Asimina rugelii B.L.Rob.Abbott, J.R. 22361 (FLAS)–GQ139706–JQ513887GQ139881–GU937354JQ513887–
Asimina triloba DunalChatrou, L.W. et al. 276 (U)EF179252GQ139711AY218171AY743441AY743460EF179329GU937349AY743441–
Disepalum platypetalum Merr.Takeuchi, W. & Sambas 18201EF179257DQ125057EF179292––EF179334–––
Disepalum pulchrum (King) J.SinclairChan, R. 192 (FLAS)–GQ139736–JQ513888GQ139909–GU937383JQ513888–
Goniothalamus tapis Miq.ThailandKeßler, P.J.A. 3193 (L)EF179262DQ125058EF179297AY841622AY841700EF179339–AY841622–
Goniothalamus amuyon Merr.PhilippinesTang, C.C. 20100907 (HKU)7 Sept 2010KM818518KM818567KM818648KM818728KM818898KM818916KM818979KM818839KM818755
Goniothalamus andersonii J.SinclairBorneoAnderson, J.A.R. S12596 (L)18 May 1961KM818519KM818568–KM818711KM818867KM818949–KM818789–
Goniothalamus angustifolius (A.C.Sm.) B.Xue & R.M.K. SaundersFijiGillespie, J.W. 2198 (A)9 Aug 1927–KM818569KM818632KM818732KM818878KM818937KM818983KM818797–
Goniothalamus aruensis Scheff.New GuineaRegalado, J. & Takeuchi, W. 1409 (L)26 Jun 1995KM818520KM818570KM818640KM818706KM818868KM818918–KM818791–
Goniothalamus australis JessupAustraliaUnknown collector 3178 (HKU)17 Jun 2009KM818521KM818571KM818638KM818709KM818887KM818910KM818973KM818836KM818769
Goniothalamus borneensis Mat-SallehBorneoArbainsyah et al. AA1011 (L)21 Feb 1995KM818522KM818572KM818673–KM818893KM818952–KM818826KM818747
Goniothalamus bracteosus BânBorneoClemens, J. & Clemens, M.S. 27619 (L)17 Dec 1931–KM818573–KM818730KM818906KM818967–KM818796–
Goniothalamus calcareus Mat-SallehBorneoAhmad Ali, J. BRUN23929 (BRUN)10 July 2012–––KM818717–KM818927KM818994KM818810–
Goniothalamus calvicarpus CraibCultivatedSaunders, R.M.K., Su, Y.C.F. & Chalermglin, P. 04/13 (HKU)25 Jul 2004KM818523KM818574KM818647KM818702KM818874KM818934KM819005KM818809KM818775
Goniothalamus cardiopetalus Hook.f. & ThomsonIndiaRaghavan, R.S. 86311 (L)16 Feb 1963KM818524KM818575KM818654KM818692KM818879KM818912–KM818799KM818752
Goniothalamus cauliflorus K.Schum.Papua New GuineaHartley, T.G. 9911 (L)15 Feb 1962KM818525KM818576KM818663KM818696KM818869KM818919–KM818807KM818757
Goniothalamus cheliensis HuCultivatedSaunders, R.M.K., Su, Y.C.F. & Chalermglin, P. 04/22 (HKU)25 Jul 2004KM818526KM818577KM818661KM818678KM818901KM818926KM818992KM818831KM818758
Goniothalamus clemensii BânBorneoBeaman, J.H. 8184 (L)3 Jan 1984–KM818578–KM818736KM818844KM818915–KM818780–
Goniothalamus costulatus Miq.JavaMartati, T. 169 (L)15 Sep 1960–KM818579–KM818737KM818865KM818945–KM818805–
Goniothalamus dumontetii R.M.K. Saunders & MunzingerNew CaledoniaDumontet, V. & Poullain, C. 716 (HKU)15 Jun 2006–KM818580–KM818729KM818861KM818954–KM818840–
Goniothalamus elegans AstThailandNakkuntod, M. 40 (BCU)28 Oct 2005KM818527KM818581KM818676KM818707KM818850KM818955KM818997KM818817–
Goniothalamus elmeri Merr.PhilippinesRosario et al. 11-014 (University of Santo Tomas Herbarium)s.a.–KM818582KM818639KM818677KM818882KM818924KM819003KM818811–
Goniothalamus expansus CraibThailandKitamura, S. MN22 (BCU)9 Jun 2004–KM818583KM818634KM818714KM818853KM818931KM818987KM818829–
Goniothalamus fasciculatus Boerl.BorneoKeßler, P.J.A. et al. 2846 (HKU)10 Apr 2000KM818528KM818584KM818636–KM818890KM818950–––
Goniothalamus gardneri Hook.f. & ThomsonSri LankaTillekaratne, H.I. G29 (HKU)s.a.KM818529KM818585KM818656KM818704KM818871KM818923KM819001KM818784KM818773
Goniothalamus giganteus Hook.f. & ThomsonCultivatedSaunders, R.M.K., Su, Y.C.F. & Chalermglin, P. 04/28 (HKU)25 Jul 2004KM818530KM818586KM818655KM818698KM818892KM818963KM818996KM818837KM818754
Goniothalamus grandiflorus Boerl.Papua New GuineaTakeuchi, W.N. 8771 (L)11 Feb 1993KM818531KM818587KM818637KM818691KM818851KM818930–KM818802KM818770
Goniothalamus griffithii Hook.f. & ThomsonThailandSaunders, R.M.K. & Chalermglin, P. 04/30 (HKU)28 Jul 2004KM818532KM818588KM818651KM818701KM818894KM818939KM819000KM818798KM818748
Goniothalamus hookeri ThwaitesSri LankaRatnayake, R.M.C.S. 100 (HKU)10 Feb 2003KM818533KM818589KM818657KM818734KM818872KM818956–KM818814KM818774
Goniothalamus howii Merr. & ChunChinaWang, X.B. W2011003 (HUTB)3 Aug 2011KM818534KM818590–KM818689KM818886KM818938KM818986KM818833KM818767
Goniothalamus imbricatus Scheff.Papua New GuineaBau, B. LAE89112 (LAE)s.a.KM818535KM818591–KM818722KM818847KM818946KM818998KM818806KM818753
Goniothalamus kinabaluensis Bân ex Mat-SallehBorneoVogel, E.F. de 8387 (L)18 Oct 1986KM818536KM818592KM818672KM818684KM818876KM818935–KM818787KM818745
Goniothalamus laoticus (Finet & Gagnep.) BânCultivatedSaunders, R.M.K., Su, Y.C.F. & Chalermglin, P. 04/9 (HKU)25 Jul 2004KM818537KM818593KM818666KM818699KM818881KM818959KM818993KM818808KM818760
Goniothalamus loerzingii R.M.K. SaundersSumatraKostermans, A.J.G.H. 22015 (L)13 Dec 1965–KM818594–KM818724KM818902KM818947–KM818782–
Goniothalamus macranthus Boerl.AndamansKing׳s collector 347 (L)1884KM818538KM818595KM818643KM818695KM818873KM818928KM818995KM818792KM818776
Goniothalamus macrophyllus (Blume) Hook.f. & Thoms.CultivatedSaunders, R.M.K., Su, Y.C.F. & Chalermglin, P. 04/16 (HKU)25 Jul 2004KM818539KM818596KM818665KM818688KM818897KM818940KM819002KM818843KM818766
Goniothalamus maewongensis R.M.K. Saunders & ChalermglinThailandSaunders, R.M.K., Nakkuntod, M. & Chalermglin, P. 04/35 (HKU)29 Jul 2004KM818540KM818597KM818659KM818725KM818888KM818962KM818977KM818838KM818746
Goniothalamus majestatis KesslerSulawesiMcDonald, J.A. 3896 (L)26 July 1993KM818541KM818598–KM818713KM818903KM818958–KM818788KM818756
Goniothalamus malayanus Hook.f. & ThomsonCultivatedSaunders, R.M.K., Su, Y.C.F. & Chalermglin, P. 04/24 (HKU)25 Jul 2004KM818542KM818599KM818650KM818718KM818891KM818914KM819006KM818835KM818743
Goniothalamus megalocalyx I.M.Turner & R.M.K. SaundersBorneoTang, C.C. et al. TCC117 (HKU)11 Nov 2011KM818543KM818600KM818645KM818726KM818885KM818960KM819007KM818822KM818763
Goniothalamus monospermus (A.Gray) R.M.K. SaundersFijiSmith, A.C. 5111 (L)7 Jul-18 Sep 1947–KM818601–KM818735–KM818969–KM818790–
Goniothalamus montanus J.SinclairPeninsular MalaysiaSoepadmo, E. & Suhaimi, M. 43 (L)11 Nov 1989KM818544KM818602KM818674KM818710KM818856KM818932–KM818813–
Goniothalamus obtusatus (Baill.) R.M.K. SaundersNew CaledoniaVeillon, J.M. 7591 (NOU)25 Nov 1992KM818545KM818603KM818660KM818687KM818883KM818911KM818981KM818815–
Goniothalamus palawanensis C.C. Tang & R.M.K. SaundersPhilippinesTang, C.C. TCC12 (HKU)31 May 2012–KM818604–KM818716KM818855KM818925KM818976KM818793–
Goniothalamus parallelivenius Ridl.BorneoTang, C.C. et al. TCC50 (HKU)16 May 2011KM818546KM818605KM818635KM818683KM818880KM818941–KM818801KM818765
Goniothalamus repevensis Pierre ex Finet & Gagnep.CultivatedSaunders, R.M.K., Su, Y.C.F. & Chalermglin, P. 04/8 (HKU)25 Jul 2004KM818547KM818606KM818664KM818723KM818877KM818936–KM818795KM818749
Goniothalamus reticulatus ThwaitesSri LankaSaunders, R.M.K. & Weerasooriya, A.D. 00/7 (HKU)17 Jun 2000KM818548KM818607–––KM818913–KM818786KM818742
Goniothalamus ridleyi KingPeninsular MalaysiaSoepadmo, E. & Suhaimi, M. 341 (L)16 Feb 1991KM818549KM818608–KM818739KM818860KM818951KM818985KM818830–
Goniothalamus rotundisepalus M.R.Hend.ThailandLarsen, K. & Larsen, S.S. 32826 (AAU)2 Mar 1974KM818550KM818609KM818649KM818693KM818857KM818908–KM818794KM818759
Goniothalamus rufus Miq.BorneoKeßler, P.J.A. et al. 2482 (L)10 Mar 1999KM818551KM818610–KM818727KM818848KM818943–KM818819–
Goniothalamus sawtehii C.E.C.Fisch.CultivatedSaunders, R.M.K., Su, Y.C.F. & Chalermglin, P. 04/14 (HKU)25 Jul 2004KM818552KM818611KM818646KM818680KM818895KM818942KM819004KM818785KM818751
Goniothalamus scortechinii KingPeninsular MalaysiaNoorsiha, A. et al. FRI 39427 (L)21 Sep 1993KM818553KM818612KM818670KM818712KM818845KM818929KM818988KM818781KM818744
Goniothalamus sesquipedalis Hook.f. & ThomsonIndiaGriffith, W. s.n. [= Herb. E. India Co. 402A] (L)s.a.KM818554KM818613KM818667KM818719KM818904KM818907KM818984KM818825KM818740
Goniothalamus sp. nov. tcc10PhilippinesTang, C.C. TCC10 (HKU)31 May 2012–KM818614KM818675KM818715KM818864KM818944KM818980KM818821–
Goniothalamus suaveolens 1 Becc.BorneoTang, C.C. TCC32 (HKU)10 May 2011KM818555KM818616–KM818682KM818858KM818933KM818982KM818800KM818762
Goniothalamus suaveolens 2 Becc.BorneoAtkins, S. 466 (L)14 Jul 1993–KM818615–KM818681KM818884KM818968KM818999KM818818–
Goniothalamus tamirensis Pierre ex Finet & Gagnep.CultivatedSaunders, R.M.K., Su, Y.C.F. & Chalermglin, P. 04/23 (HKU)25 Jul 2004KM818556KM818617KM818662KM818700KM818866KM818917KM818990KM818832KM818761
Goniothalamus tapisoides Mat-SallehBorneoTang, C.C. et al. TCC51 (HKU)16 May 2011KM818557KM818618KM818641KM818686KM818899KM818920–KM818823KM818771
Goniothalamus tavoyensis ChatterjeeCultivatedSaunders, R.M.K., Su, Y.C.F. & Chalermglin, P. 04/11 (HKU)25 Jul 2004KM818558KM818619KM818633KM818690KM818854KM818961–KM818841KM818750
Goniothalamus tenuifolius KingCultivatedSaunders, R.M.K., Su, Y.C.F. & Chalermglin, P. 04/17 (HKU)25 Jul 2004KM818559KM818620KM818669KM818694KM818889KM818909KM818974KM818842KM818741
Goniothalamus thomsoni ThwaitesSri LankaKostermans, A.J.G.H. 25485 (L)31 Aug 1974–KM818621–KM818733KM818875KM818971–KM818834–
Goniothalamus thwaitesii Hook.f. & ThomsonIndiaBeddome, R.H. 299 (PDA)s.a.KM818560KM818622KM818653KM818703KM818849KM818922––KM818772
Goniothalamus tomentosus R.M.K. SaundersPeninsular MalaysiaWhitmore, T.C. FRI 3851 (L)21 May 1967KM818561KM818623–KM818738KM818846KM818964–KM818783–
Goniothalamus tortilipetalus M.R.Hend.ThailandNakkuntod, S. 58 (HKU)25 Nov 2005–KM818624KM818642KM818708KM818905KM818948–KM818828–
Goniothalamus touranensis AstIndochinaClemens, J. & Clemens, M.S. 4187 (NY)May-Jul 1927–KM818625–KM818731KM818870KM818965–KM818804–
Goniothalamus undulatus Ridl.CultivatedSaunders, R.M.K., Su, Y.C.F. & Chalermglin, P. 04/25 (HKU)25 Jul 2004KM818562KM818626KM818652KM818679KM818896KM818921KM818978KM818820KM818777
Goniothalamus uvarioides KingPeninsular MalaysiaKochummen, K.M. FRI 2344 (L)24 May 1967–KM818627KM818658KM818685KM818852KM818966KM818975KM818827–
Goniothalamus velutinus Airy ShawBorneoTang, C.C. TCC46 (HKU)16 May 2011KM818563KM818628KM818644KM818705KM818900KM818953KM818989KM818812KM818764
Goniothalamus woodii Merr. ex Mat-SallehBorneoShea, G. SAN 75202 (L)18 Mar 1972KM818564KM818629KM818668KM818720KM818862KM818972–KM818824KM818778
Goniothalamus wrayi KingPeninsular MalaysiaSuppiah, T. FRI 28345 (L)18 Jan 1979KM818565KM818630KM818671KM818721KM818859KM818957–KM818803KM818779
Goniothalamus wynaadensis Bedd.IndiaKramer, K.U. 6248 (L)17 Dec 1977KM818566KM818631–KM818697KM818863KM818970KM818991KM818816KM818768
Neostenanthera myristicifolia (Oliv.) ExellGabonWieringa, J.J. et al. 3566 (WAG)EF179271AY743486EF179306AY743448AY743467EF179348–AY743448–

Bayesian phylogenetic reconstructions for Goniothalamus

The sequences of the taxa listed in Table 2 were downloaded and aligned using MAFFT v.7.029b [4] with default settings and the automatic algorithm option. For manual editing and optimizing, an 11-bp inversion in psbA-trnH and a 16-bp region in ycf1 were excluded from the matrix in Geneious. The aligned and edited matrices of each region are presented as Supplementary material (Alignments 1–9, representing atpB-rbcL, matK, ndhF, psbA-trnH, psbM-trnD, rbcL, trnL-F, trnS-G, and ycf1). For Bayesian phylogenetic reconstructions, MrBayes v.3.1.2 [22,23] was performed using the online portal in the CIPRES Science Gateway [24]. Data was partitioned according to DNA region identity. The best-fitting evolutionary models were selected using MrModeltest v.2.3 [25] under the Akaike Information Criterion (AIC [26]): GTR+Γ+I was selected for the psbA-trnH, psbM-F, rbcL, and ycf1 partitions; GTR+Γ was selected for the matK, ndhF, trnL-F, and trnS-G partitions; and the Hasegawa–Kishino–Yano Model with among-site rate variation modeled with a gamma distribution (HKY+Γ) for the atpB-rbcL partition. Four independent MCMCMC analyses were run in the Bayesian phylogenetic reconstructions, each with 5,000,000 generations, sampled every 1000th generation. Each run involved three incrementally heated and one cold Markov chain with a temperature parameter of 0.16. The parameters for substitution rates of nucleotide substitution models, character state frequencies and rate variation among sites were unlinked. In order to reduce the likelihood of stochastic entrapment in local tree length optima [27,28], the mean branch length prior was adjusted to 0.01 (brlenspr=unconstrained:exponential (100.0)); all other priors were kept as default. Convergence was assessed by checking that the standard deviation of split frequencies was <0.005. Adequate effective sample sizes (ESS >200) were checked in Tracer v.1.5 [29], which also showed whether the parameter samples were drawn from a unimodal and stationary distribution. The “Cumulative” and “Compare” functions of AWTY [30] were used to evaluate stationarity of posterior probabilities of splits within runs and convergence between different runs. 25% burn-in of initial samples of each run was excluded and a 50% majority-rule consensus tree (see Interactive Phylogenetic Tree 1) was calculated from the post-burn-in trees. A phylogeny with 66 Goniothalamus species was extracted from the resultant 50% majority-rule consensus tree. Previous infrageneric classifications [2,3] are superimposed onto the phylogeny to show congruence (Fig. 1).
Fig. 1

Bayesian 50% majority-rule consensus tree of Goniothalamus species, generated from 9-partitioned dataset with all outgroups removed. Previous infrageneric classifications [2,3], published prior to the availability of molecular phylogenetic methods, are superimposed. Boerlage [2] recognized two sections, Eu-Goniothalamus (equivalent to the autonymic sect. Goniothalamus) and Beccariodendron, based on differences in ovule number per carpel. Bân [3] subsequently recognized two subgenera, Goniothalamus and Truncatella, based on differences in staminal connective shape; each of these subgenera were further divided into sections based on stigma and pseudostyle shape, and subsections based on the number of ovules per carpel. Branch length is proportional to the substitutions rate. Scale bar: 0.1 substitutions per site.

Taxon-character data matrix

Morphological characters including vegetative, floral, fruit and seed characters were assessed from living and herbarium material (BRUN, HKU, K, L, NY and US herbaria). A total of 14 vegetative, floral, fruit and seed characters were assessed from living and herbarium material, supplemented by species descriptions [31-53]. A summary of 14 characters of 66 Goniothalamus species and seven species in the tribe Annoneae are shown in Supplementary Table 1.

Specifications table

Subject areaBiology, genetics and genomics
More specific subject areaPhylogenetics
Type of dataPrimer sequences, taxon-sequence matrices, sequence alignments, phylogeny, taxon-character matrix
How data was acquiredPrimer sequences designed using Primer3, implemented in Geneious v.5.4.3;
Sequence data generated by PCR and novel sequencing (supplemented with data downloaded from GenBank); phylogeny generated using Bayesian inference methods
Taxon-character matrix generated following an extensive literature review
Data formatRaw, filtered and analyzed
Experimental factorsn/a
Experimental featuresSequencing of chloroplast DNA and recording of associated morphological characters
Data source locationn/a
Data accessibilityWith this article
  16 in total

1.  MAFFT: a novel method for rapid multiple sequence alignment based on fast Fourier transform.

Authors:  Kazutaka Katoh; Kazuharu Misawa; Kei-ichi Kuma; Takashi Miyata
Journal:  Nucleic Acids Res       Date:  2002-07-15       Impact factor: 16.971

2.  MrBayes 3: Bayesian phylogenetic inference under mixed models.

Authors:  Fredrik Ronquist; John P Huelsenbeck
Journal:  Bioinformatics       Date:  2003-08-12       Impact factor: 6.937

3.  When trees grow too long: investigating the causes of highly inaccurate bayesian branch-length estimates.

Authors:  Jeremy M Brown; Shannon M Hedtke; Alan R Lemmon; Emily Moriarty Lemmon
Journal:  Syst Biol       Date:  2009-12-10       Impact factor: 15.683

4.  A rapid diversification of rainforest trees (Guatteria; Annonaceae) following dispersal from Central into South America.

Authors:  Roy H J Erkens; Lars W Chatrou; Jan W Maas; Timotheüs van der Niet; Vincent Savolainen
Journal:  Mol Phylogenet Evol       Date:  2007-02-25       Impact factor: 4.286

5.  Enhancements and modifications of primer design program Primer3.

Authors:  Triinu Koressaar; Maido Remm
Journal:  Bioinformatics       Date:  2007-03-22       Impact factor: 6.937

6.  AWTY (are we there yet?): a system for graphical exploration of MCMC convergence in Bayesian phylogenetics.

Authors:  Johan A A Nylander; James C Wilgenbusch; Dan L Warren; David L Swofford
Journal:  Bioinformatics       Date:  2007-08-30       Impact factor: 6.937

7.  Universal primers for amplification of three non-coding regions of chloroplast DNA.

Authors:  P Taberlet; L Gielly; G Pautou; J Bouvet
Journal:  Plant Mol Biol       Date:  1991-11       Impact factor: 4.076

8.  Chloroplast DNA phylogeny, reticulate evolution, and biogeography of Paeonia (Paeoniaceae).

Authors:  T Sang; D Crawford; T Stuessy
Journal:  Am J Bot       Date:  1997-08       Impact factor: 3.844

9.  Molecular phylogenetics of the species-rich angiosperm genus Goniothalamus (Annonaceae) inferred from nine chloroplast DNA regions: Synapomorphies and putative correlated evolutionary changes in fruit and seed morphology.

Authors:  Chin Cheung Tang; Daniel C Thomas; Richard M K Saunders
Journal:  Mol Phylogenet Evol       Date:  2015-06-29       Impact factor: 4.286

10.  A new species of Goniothalamus (Annonaceae) from Palawan, and a new nomenclatural combination in the genus from Fiji.

Authors:  Chin Cheung Tang; Bine Xue; Richard M K Saunders
Journal:  PhytoKeys       Date:  2013-12-18       Impact factor: 1.635

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  2 in total

1.  A mega-phylogeny of the Annonaceae: taxonomic placement of five enigmatic genera and support for a new tribe, Phoenicantheae.

Authors:  Xing Guo; Chin Cheung Tang; Daniel C Thomas; Thomas L P Couvreur; Richard M K Saunders
Journal:  Sci Rep       Date:  2017-08-04       Impact factor: 4.379

2.  Phylogenetic Reconstruction, Morphological Diversification and Generic Delimitation of Disepalum (Annonaceae).

Authors:  Pui-Sze Li; Daniel C Thomas; Richard M K Saunders
Journal:  PLoS One       Date:  2015-12-02       Impact factor: 3.240

  2 in total

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