1 |
Atlantic Forest |
Cariniana estrellensis and Cariniana legalis
|
Lecythidaceae |
Souza et al. (2018Souza FB, Kubota TYK, Tambarussi EV et al. 2018. Historic pollen and seed dispersal in fragmented populations of the two largest trees of the Atlantic Forest. Forestry Research and Engineering: International Journal 2: 98-107. DOI: 10.15406/freij.2018.02.00033 https://doi.org/10.15406/freij.2018.02.0...
) |
2 |
Atlantic Forest |
Anadenanthera colubrina and Anadenanthera peregrina
|
Fabaceae |
Feres et al. (2021Feres JM, Nazareno AG, Borges LM, Guidugli MC, Bonifacio-Anacleto F, Alzate-Marin AL. 2021. Depicting the mating system and patterns of contemporary pollen flow in trees of the genus Anadenanthera (Fabaceae). PeerJ 9:e10579.) |
3 |
Atlantic Forest |
Centrolobium tomentosum
|
Fabaceae |
Sujii et al. (2017Sujii OS, Schwarcz KD, Grando C, Silvestre EA, Mori GM, Brancalion PHS, Zucchi MI. 2017. Recovery of genetic diversity levels of a Neotropical tree in Atlantic Forest restoration plantations. Biological Conservation 211: 110-116.) |
4 |
Atlantic Forest |
Casearia sylvestris
|
Salicaceae |
Araujo et al. (2017Araujo FL, Siqueira MV, Grando C, Viana JP, Pinheiro JB, Alves-Pereira A et al. 2017. Genetic diversity of Casearia sylvestris populations in remnants of the Atlantic Forest. Genetics and Molecular Research 16: gmr16019105.) |
5 |
Atlantic Forest |
Myroxylon peruiferum
|
Fabaceae |
Schwarcz et al. (2018Schwarcz KD, Silvestre EA, Campos JB et al. 2018. Shelter from the storm: Restored populations of the neotropical tree Myroxylon peruiferum are as genetically diverse as those from conserved remnants. Forest Ecology and Management 410: 95-103.) |
6 |
Atlantic Forest |
Myroxylon peruiferum
|
Fabaceae |
Silvestre et al. (2018Silvestre EA, Schwarcz KD, Grando C et al. 2018. Mating system and effective population size of the overexploited Neotropical tree (Myroxylon peruiferum L.f.) and their impact on seedling production. Journal of Heredity 109: 264-271.) |
7 |
Atlantic Forest |
Rhizophora mangle
|
Rhizophoraceae |
Francisco et al. (2018Francisco PM, Tambarussi EV, Alves FM, Bajay S, Ciampi-Guillardi M, Souza AP. 2018. Genetic diversity and mating system of Rhizophora mangle L. (Rhizophoraceae) in Northern Brazil revealed by microsatellite analysis. Cerne 24: 295-302.) |
8 |
Atlantic Forest |
Eschweilera ovata
|
Lecythidaceae |
Santos et al. (2019Santos AS, Borges DB, Vivas CV, Berg CVD, Rodrigues PS, Tarazi R, Gaiotto FA. 2019. Gene pool sharing and genetic bottleneck effects in subpopulations of Eschweilera ovata (Cambess.) Mart. ex Miers (Lecythidaceae) in the Atlantic Forest of southern Bahia, Brazil. Genetics and Molecular Biology 42: 655-665.) |
9 |
Atlantic Forest |
Cedrela fissilis
|
Meliaceae |
Gandara et al. (2019Gandara FB, Da-Silva PR, de Moura TM et al. 2019. The effects of habitat loss on genetic diversity and population structure of Cedrela fissilis Vell. Tropical Plant Biology 12: 282-292. ) |
10 |
Atlantic Forest |
Eugenia involucrata
|
Myrtaceae |
Stefanel et al. (2021Stefanel CM, Reiniger LRS, Serrote CML, Stefenon VM, Lemos RPM. 2021. Variability and genetic structure in fragments of Eugenia involucrata De Candolle established through microsatellite markers. Ciência Rural 51: e20200008.) |
11 |
Atlantic Forest |
Luehea divericata
|
Malvaceae |
Silva et al. (2021Silva KB, Reiniger LRS, Serrote CML, Rabaiolli SMS, Stefenon VM, Costa LS, Ziegler ACF. 2021. Variabilidade genética de fragmentos naturais de Luehea divaricata Mart. & Zucc. no bioma Mata Atlântica. Biodiversidade Brasileira 11: 4-11.) |
12 |
Atlantic Forest |
Campomanesia xanthocarpa
|
Myrtaceae |
Petry et al. (2021Petry VS, Stefenon VM, Machado LO, da Costa NCF, Klabunde GHF, Nodari RO. 2021. Patterns of genetic diversity, spatial genetic structure and gene flow in Campomanesia xanthocarpa: insights from SSR markers of different genomic origins. Anais da Academia Brasileira de Ciências 93: e20210134.) |
13 |
Atlantic Forest |
Anadenanthera peregrina
|
Fabaceae |
Cortelete et al. (2021Cortelete MA, Silva Júnior AL, Pereira MLS, Miranda FD, Caldeira MVW. 2021. Molecular characterization as strategy for ex situ conservation of Anadenanthera peregrina (L.) Speg. Scientia Forestalis 49: e3443.) |
14 |
Atlantic Forest |
Schinus terebinthifolia
|
Anacardiaceae |
Velasques et al. (2021Velasques J, Crispim BA, Vasconcelos AA, Bajay MM, Cardoso CAL, Barufatti A, Vieira MC. 2021. Genetic and chemodiversity in native populations of Schinus terebinthifolia Raddi along the Brazilian Atlantic forest. Scientific Reports 11: 20487. ) |
15 |
Cerrado |
Dipteryx alata
|
Fabaceae |
Berti et al. (2017Berti CLF, Kamada T, Moraes MA, Alves PF, Silva AM, Moraes MLT, Berti MPS 2017. Diversidade genética de populações naturais de Dipteryx alata localizadas nos municípios de Brasilândia/MS, Indiara/GO e Itarumã/GO estimada por marcadores microssatélites. Cultura Agronômica 26: 203-216.) |
16 |
Cerrado |
Dipteryx alata
|
Fabaceae |
Guimarães et al. (2019Guimarães RA, Miranda KMC, Mota EES, Chaves LJ, Telles MPC, Soares TN. 2019. Assessing genetic diversity and population structure in a Dipteryx alata germplasm collection utilizing microsatellite markers. Crop Breeding and Applied Biotechnology 19: 329-336.) |
17 |
Cerrado |
Casearia grandiflora
|
Salicaceae |
Costa et al. (2017Costa MF, Pereira AA, Pinheiro JB et al. 2017. Chloroplast diversity of Casearia grandiflora in the Cerrado of Piauí State. Genetics and Molecular Research 16: gmr16019572.) |
18 |
Cerrado |
GenipaAmericana
|
Rubiaceae |
Manoel et al. (2017Manoel RO, Freitas MLM, Furlani Junior E et al. 2017. Low levels of pollen and seed flow in a riparian forest fragment of the dioecious tropical tree Genipa americana L. Forestry Research and Engineering: International Journal 1: 18-27.) |
19 |
Cerrado |
Eugenia dysenterica
|
Myrtaceae |
Boaventura-Novaes et al. (2018Boaventura-Novaes CRD, Novaes E, Mota EES, Telles MPC, Coelho ASG, Chaves LJ. 2018. Genetic drift and uniform selection shape evolution of most traits in Eugenia dysenterica DC. (Myrtaceae). Tree Genetics & Genomes 14:76.) |
20 |
Cerrado |
Hymenaea stigonocarpa
|
Fabaceae |
Moraes et al. (2018Moraes MA, Kubota TYK, Rossini BC et al. 2018. Long-distance pollen and seed dispersal and inbreeding depression in Hymenaea stigonocarpa (Fabaceae: Caesalpinioideae) in the Brazilian savannah. Ecology and Evolution 8: 7800-7816.) |
21 |
Cerrado |
Qualea grandiflora
|
Vochysiaceae |
Potascheff et al. (2019Potascheff CM, Oddou-Muratorio S, Klein EK et al. 2019. Stepping stones or stone dead? Fecundity, pollen dispersal and mating patterns of roadside Qualea grandiflora Mart. trees. Conservation Genetics 20: 1355-1367.) |
22 |
Cerrado |
Dimorphandra wilsonii
|
Fabaceae |
Muniz et al. (2020Muniz AC, Lemos-Filho JP, Souza HA et al. 2020. The protected tree Dimorphandra wilsonii (Fabaceae) is a population of inter-specific hybrids: recommendations for conservation in the Brazilian Cerrado/Atlantic Forest ecotone. Annals of Botany 126: 191-203.) |
23 |
Cerrado |
Hancornia speciosa
|
Apocynaceae |
Chaves et al. (2020Chaves LJ, Ganga RMD, Guimarães RA, Caldeira AJR. 2020. Quantitative and molecular genetic variation among botanical varieties and subpopulations of Hancornia speciosa Gomes (Apocynaceae). Tree Genetics & Genomes 16: 50.) |
24 |
Cerrado |
Astronium fraxinifolium
|
Anacardiaceae |
Manoel et al. (2021Manoel RO, Rossini B, Cornacini MR et al. 2021. Landscape barriers to pollen and seed flow in the dioecious tropical tree Astronium fraxinifolium in Brazilian savannah. PLoS One 16: e0255275.) |
25 |
Amazon |
Bertholletia excelsa
|
Lecythidaceae |
Cabral et al. (2017Cabral JC, Baldoni AB, Tonini H, Azevedo VCR, Giustina LD, Tiago AV, Rossi AAB. 2017. Diversity and genetic structure of the native Brazil nut tree (Bertholletia excelsa Bonpl.) population. Genetics and Molecular Research 16: gmr16039702.) |
26 |
Amazon |
Bertholletia excelsa
|
Lecythidaceae |
Giustina et al. (2017)Giustina LD et al. 2017. Genetic diversity between and within half-sib families of Brazil nut tree (Bertholletia excelsa Bonpl.) originating from native forest of the Brazilian Amazon. Genetics and Molecular Research 16 (4): gmr16039839. doi: 10.4238/gmr16039839 https://doi.org/10.4238/gmr16039839...
|
27 |
Amazon |
Bertholletia excelsa
|
Lecythidaceae |
Giustina et al. (2018Giustina LD, Baldoni AB, Tonini H, Azevedo VCR, Neves LG, Tardin FD, Sebbenn AM. 2018. Hierarchical outcrossing among and within fruits in Bertholletia excelsa Bonpl. (Lecythidaceae) open-pollinated seeds. Genetics and Molecular Research 17: gmr16039872.) |
28 |
Amazon |
Bertholletia excelsa
|
Lecythidaceae |
Martins et al. (2018Martins K, Santos RSO, Campos T, Wadt LHO. 2018. Pollen and seed dispersal of Brazil nut trees in the southwestern Brazilian Amazon. Acta Amazonica 48: 217-223. ) |
29 |
Amazon |
Bertholletia excelsa
|
Lecythidaceae |
Vieira et al. (2019Vieira FS, Rossi AA, Pena GF et al. 2019. Genetic diversity of Brazil-nut populations naturally occurring in the municipality of Alta Floresta, MT, Brazil. Genetics and Molecular Research 18: gmr18174.) |
30 |
Amazon |
Bertholletia excelsa
|
Lecythidaceae |
Baldoni et al. (2020Baldoni AB, Teodoro LPR, Teodoro PE et al. 2020. Genetic diversity of Brazil nut tree (Bertholletia excelsa Bonpl.) in southern Brazilian Amazon. Forest Ecology and Management 458: 117795.) |
31 |
Amazon |
Genipa Americana
|
Rubiaceae |
Ruzza et al. (2018Ruzza DAC, Rossi AAB, Bispo RB, Tiago AV, Cochev JS, Rossi FS, Fernandes JM. 2018. The genetic diversity and population structure of Genipa Americana (Rubiaceae) in Northern Mato Grosso, Brazil. Genetics and Molecular Research 17: gmr18017.) |
32 |
Amazon |
Theobroma speciosum
|
Malvaceae |
Dardengo et al. (2018Dardengo JFE, Rossi AAB, Varella TL. 2018. The effects of fragmentation on the genetic structure of Theobroma speciosum (Malvaceae) populations in Mato Grosso, Brazil. Revista de Biología Tropical 66: 218-226.) |
33 |
Amazon |
Hymenaea courbaril
|
Fabaceae |
Rocha et al. (2019Rocha VD, Bispo RB, Pedri ECM, Cardoso ES, Zortéa KEM, Rossi AAB. 2019. Genetic diversity of Hymenaea courbaril L. in the Mato Grosso Amazon: implications for conservation. Floresta 49: 745-754.) |
34 |
Amazon |
Caryocar villosum
|
Caryocaraceae |
Francisconi et al. (2021Francisconi AF, Alves RP, Clement CR, Dequigiovanni G, Carvalho IAS, Veasey EA. 2021. Genetic structure and diversity identify incipient domestication of Piquiá [Caryocar villosum (Aubl.) pers.] along the lower Tapajós River, Brazilian Amazonia. Genetic Resources and Crop Evolution 68: 1487-1501.) |
35 |
Caatinga |
Prosopis palida and Prosopis juliflo
|
Fabaceae |
Freitas et al. (2019Freitas LS, Melo CAF, Gaiotto FA, Ronan X, Corrêa RX. 2019. SSR based genetic diversity analysis in diploid algaroba (Prosopis spp.) population. Journal of Agricultural Science 11: 179-190. ) |
36 |
Caatinga |
Spondias tuberosa
|
Anacardiaceae |
Santos et al. (2021Santos V, Santos CAF, de Oliveira VR, Costa AES, da Silva FFS. 2021. Diversity and genetic structure of Spondias tuberosa (Anacardiaceae) accessions based on microsatellite loci. Revista de Biología Tropical 69: 640-648.) |
37 |
Pantanal |
Prosopis rubriflora and Prosopis ruscifolia
|
Fabaceae |
Alves et al. (2018Alves FM, Sartori ÂLB, Zucchi MI, Azevedo-Tozzi AMG, Tambarussi EV, Alves-Pereira A, de Souza AP. 2018a. Genetic structure of two Prosopis species in Chaco areas: A lack of allelic diversity diagnosis and insights into the allelic conservation of the affected species. Ecology and Evolution 8: 6558-6574.a) |
38 |
Pantanal |
Prosopis rubriflora
|
Fabaceae |
Alves et al. (2018Alves FM, Sartori ALB, Zucchi MI, Azevedo-Tozzi AMG, Tambarussi EV, Souza AP. 2018b. A high level of outcrossing in the vulnerable species Prosopis rubriflora in a Chaco remnant. Australian Journal of Botany 66: 360-368.b) |