American Palms Used for Medicine, in the Ethnobotanical and Pharmacological Publications
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Notes on Oenocarpus (Palmae) in the Cowmbian Amazon
Bri/tonio. 43(3), 1991 . pp. 154-164 © 1991 , by the New York Botanical Garden, Bronx, NY 10458-5126 NOTES ON OENOCARPUS (PALMAE) IN THE COWMBIAN AMAZON RODRIGO G . BERNAL, GWRIA GALEANO, AND ANDREW HENDERSON Bernal, Rodrigo G., Gloria Galeano (Instituto de Ciencias Naturales, Univer sidad Nacional de Colombia, Apartado 7495, Bogota, Colombia) and Andrew Henderson (New York Botanical Garden, Bronx, NY 10458-5126). Notes on Oenocarpus (Palmae) in the Colombian Amazon. Brittonia 43: 154-164. 1991- Five species of Oenocarpus from the Rio Caquem. in the Colombian Amazon, are discussed. Two of them, Oenocarpus simplex and Oenocarpus makeru are described as new. Oenocarpus bacaba var. parvus is shown to be a synonym of O. balickii; this species and O. minor are recorded for the first time in Colombia. Some comments on the poorly known O. circumtextus are also given. The new findings support the inclusion of Jessenia in Oenocarpus. Se discuten cinco especies de Oenocarpus de la region del rio Caqueta, en la Amazonia Colombiana. Dos de elIas, Oenocarpus simplex y Oenocarpus makeru se describen como nuevas. Oenocarpus bacaba var. parvus es considerada un sin6nimo de O. balickii, y esta especie, junto con O. minor, es registrada por primera vez en Colombia. Se da infonnacion adicional sobre O. circumtextus, una especie muy poco conocida. Los nuevos hallazgos respaldan la union de Jessenia y Oenocarpus. Key words: Palmae, Oenocarpus, Jessenia, Colombian Amazon. Nine species were recognized by Balick (1986) in the most recent revision of the Jessenia-Oenocarpus complex. Two new varieties of Oenocarpus bacaba C. Martius from Venezuela were later added by Wessels Boer (1988), and a new species of Oenocarpus C. -
New World Guava Fruit Fly, Anastrepha Striata, Host List the Berries, Fruit, Nuts and Vegetables of the Listed Plant Species Are Now Considered Host Articles for A
November 2018 New World Guava Fruit Fly, Anastrepha striata, Host List The berries, fruit, nuts and vegetables of the listed plant species are now considered host articles for A. striata. Unless proven otherwise, all cultivars, varieties, and hybrids of the plant species listed herein are considered suitable hosts of A. striata. Scientific Name Common Name Acca sellowiana (O. Berg) Burret Pineapple-guava, feijoa Anacardium occidentale L. Cashew, cajuil Annona cherimola Mill. Cherimoya, custard-apple Annona muricata L. Soursop, araticum-grande Averrhoa carambola L. Carambola, starfruit Bellucia dichotoma Cogn. N/A Bellucia grossularioides (L.) Triana N/A Byrsonima crassifolia (L.) Kunth Craboo, golden-spoon Calycolpus moritzianus (O. Berg) Burret N/A Campomanesia lineatifolia Ruiz & P av. Guabiroba, guayaba de leche Carica papaya L. Papaya, pawpaw 1 Citrus xsinensis (L.) Osbeck Sweet orange, blood orange Citrus xtangeloJ. W. Ingram & H. E. Moore Tangelo, uglifruit Coffea arabica L. Arabica coffee, Arabian coffee Couma utilis (Mart.) Mull. Arg. Sorva, sorva pequena Diospyros digyna Jacq. Black persimmon, black sapote Eriobotrya japonica (Thunb). Lindl. Loquat, Japanese-medlar Eugenia ligustrina (Sw.) Willd. Birchberry, privet stopper Eugenia luschnathiana (O. Berg) Klotzsch ex B. D. Jacks N/A Eugenia stipitata McVaugh Araca-boi, araza Eugenia uniflora L. Brazil-cherry, Surinam-cherry Inga edulis Mart. Ice-cream-bean, inga-cipo Inga feuilleei DC. Pacae, pacay Inga velutina Wiild. N/A Malpighia glabra L. Escobillo Mangifera indica L. Common mango, Indian mango Manilkara zapota (L.) P. Royen Sapote, naseberry, sapodilla Oenocarpus bacaba Mart. Bacaba palm Common passionfruit, purple Passiflora edulis Sims granadilla Persea americana Mill. Avocado, abacate 2 Pouteria caimito (Ruiz & Pav.) Radlk. -
Acrocomia Media 68
Acrocomia media O.F. Cook Corozo Palmae Familia de las palmas John K. Francis Acrocomia media O.F. Cook, conocido como corozo en Clima español y como “prickly palm” en inglés, es una palma El corozo crece y se reproduce en los bosques húmedos de atractiva y de tamaño mediano (fig. 1) nativo a las áreas tierras bajas que reciben entre 1000 y 1900 mm de costeras y la base de los cerros en Puerto Rico y St. Thomas, precipitación anual promedio (observación personal del Islas Vírgenes de los Estados Unidos. La fruta y el meollo de autor). Aunque menos común, la especie también ocurre de las semillas son comestibles y tienen un alto contenido de manera natural en las áreas con más de 1900 mm de aceite, pero son rara vez usados. A pesar de su tronco espinoso, precipitación anual promedio. En las áreas con menos de 1000 el corozo se ha vuelto popular como una planta de ornamento mm de precipitación, las palmas de corozo se encuentran para uso en la decoración del paisaje. confinadas al curso de las corrientes de agua, los arroyos intermitentes y los micrositios que reciben aguas de desagüe. HABITAT Suelos y Topografía Area de Distribución Natural y de Naturalización Los hábitats más favorables para la reproducción del corozo que proveen a su vez de una ventaja competitiva en el El corozo es nativo a Puerto Rico y St. Thomas, en las crecimiento son las arenas costeras húmedas. Estas son are- Islas Vírgenes de los Estados Unidos (fig. 2) y ha sido nas y arenas margosas con unos pH de entre 6.5 y 8.5 que se introducido como una especie de ornamento a St. -
Oenocarpus Bataua Mart.): a Palm from the Amazon
International Journal of Plant & Soil Science 31(6): 1-7, 2019; Article no.IJPSS.54389 ISSN: 2320-7035 Mineralogical Composition and Bioactive Molecules in the Pulp and Seed of Patauá (Oenocarpus bataua Mart.): A Palm from the Amazon S. A. M. Saravia1*, I. F. Montero2, B. M. Linhares3, R. A. Santos4 and J. A. F. Marcia5 1Faculty of Earth Sciences and Conservation, National University of Agriculture, Highway to Dulce Nombre de Culmi, Km 215, Neighborhood El Espino, Catacamas-Olancho, Honduras. 2Department of Organic and Inorganic Chemistry, Polytechnic School, University of Extremadura, University Avenue s/n, Cáceres, Spain. 3Federal Institute of Roraima, Campus Boa Vista, Av. Glaycon de Paiva, 2496 - Pricumã, Boa Vista - RR, 69303-340, Brazil. 4Department of Food Science, Louisiana State University, USA. 5Faculty of Technological Sciences, National University of Agriculture, Highway to Dulce Nombre de Culmi, Km 215, Neighborhood El Espino, Catacamas-Olancho, Honduras. Authors’ contributions This work was carried out in collaboration among all authors. Author SAMS contributed to the analysis, literature review and formatting of the article. Author IFM contributed to the supervision of the analysis, writing of the article and review of language and style. Author BML contributed to the collection of the material, sample preparation and analysis. Authors RAS and JAFM contributed to the review, editing of the article, the verification, validation of the methods and analysis being used in the experiments. All authors read and approved the final manuscript. Article Information DOI: 10.9734/IJPSS/2019/v31i630228 Editor(s): (1) Dr. Olanrewaju Folusho Olotuah, Professor, Department of Plant Science and Biotechnology, Adekunle Ajasin University, Akungba-Akoko, Ondo State, Nigeria. -
Species Delimitation and Hybrid Identification of Acrocomia Aculeata
Species delimitation and hybrid identification of Acrocomia aculeata and A. totai by genetic population approach Brenda D´ıaz1, Maria Zucchi2, Alessandro Alves-Pereira1, Joaquim Azevedo-Filho2, Mariana Sanit´a2, and Carlos Colombo2 1State University of Campinas 2Instituto Agronomico October 9, 2020 Abstract To the Neotropical genus Acrocomia (Arecaceae) is attributed eight species with a wide distribution in America. A. aculeata and A. totai are the most important species because of their high economic potential for oil production. However, there is no consensus in their classification as different taxons and their distinctiveness is particularly challenging due to morphological similarities with large plasticity of the traits. In addition, there is doubt about the occurrence of interspecific hybrids between both species. In this study, we applied a genetic population approach to assessing the genetic boundaries, diversity and to identify interspecific hybrids of A. aculeata and A. totai. Thirteen loci of simple sequence repeat (SSR) were employed to analyze twelve populations representing a wide distribution of species, from Minas Gerais, Brazil to Formosa, Argentina. Based on the Bayesian analysis (STRUCTURE and NewHybrids) and Discriminant Analysis of Principal Components (DAPC), our study supports the recognition of A. aculeata and A. totai as two species and the estimates of genetic parameters revealed more genetic diversity in A. totai (HE=0.551) than in A. aculeata (HE=0.466). We obtained evidence of hybridization between the species and that admixed individuals were assigned as F2 hybrids. In conclusion, this study showed the usefulness of microsatellite markers to elucidate the genetic boundaries of A. aculeata and A. totai, supporting their classification as different species and increase our knowledge about genetic diversity at the level of populations and species. -
Red Ring Disease of Coconut Palms Is Caused by the Red Ring Nematode (Bursaphelenchus Cocophilus), Though This Nematode May Also Be Known As the Coconut Palm Nematode
1 Red ring disease of coconut palms is caused by the red ring nematode (Bursaphelenchus cocophilus), though this nematode may also be known as the coconut palm nematode. This disease was first described on coconut palms in 1905 in Trinidad and the association between the disease and the nematode was reported in 1919. The vector of the nematode is the South American palm weevil (Rhynchophorus palmarum), both adults and larvae. The nematode parasitizes the weevil which then transmits the nematode as it moves from tree to tree. Though the weevil may visit many different tree species, the nematode only infects members of the Palmae family. The nematode and South American palm weevil have not yet been observed in Florida. 2 Information Sources: Brammer, A.S. and Crow, W.T. 2001. Red Ring Nematode, Bursaphelenchus cocophilus (Cobb) Baujard (Nematoda: Secernentea: Tylenchida: Aphelenchina: Aphelenchoidea: Bursaphelechina) formerly Rhadinaphelenchus cocophilus. University of Florida, IFAS Extension. EENY236. Accessed 11-27-13 http://edis.ifas.ufl.edu/in392 Griffith, R. 1987. “Red Ring Disease of Coconut Palm”. The American Pathological Society Plant Disease, Volume 71, February, 193-196. accessed 12/5/2013- http://www.apsnet.org/publications/plantdisease/ba ckissues/Documents/1987Articles/PlantDisease71n02_193.PDF Griffith, R., R. M. Giblin-Davis, P. K. Koshy, and V. K. Sosamma. 2005. Nematode parasites of coconut and other palms. M. Luc, R. A. Sikora, and J. Bridges (eds.) In Plant Parasitic Nematodes in Subtropical and Tropical Agriculture. C.A.B. International, Oxon, UK. Pp. 493-527. 2 The host trees susceptible to the red ring nematode are usually found in the family Palmae. -
Transplanting Palms in the Landscape1 Timothy K
CIR1047 Transplanting Palms in the Landscape1 Timothy K. Broschat2 Palms, when compared to similar-sized broadleaf trees, are Understanding how palm roots grow and respond to being relatively easy to transplant into the landscape. Many of the cut can greatly improve the chances of success when trans- problems encountered when transplanting broadleaf trees, planting palms. In addition, other factors—such as rootball such as wrapping roots, are never a problem in palms due size, leaf removal and tying, physiological age of the palm, to their different root morphology and architecture. While transplanting season, and planting depth—can also have a broadleaf trees typically have only a few large primary roots significant impact on the success of palm transplants. The originating from the base of the trunk, palm root systems purpose of this document is to discuss how these and other are entirely adventitious. In palms, large numbers of roots factors contribute to palm transplant survival rate. of a relatively small diameter are continually being initiated from a region at the base of the trunk, a region called the Transplanting Container-Grown root-initiation zone (Figure 1). And while the roots of broadleaf trees continually increase in diameter, palm roots Palms into the Landscape remain the same diameter as when they first emerged from Container-grown plants often have roots that wrap around the root-initiation zone. the inside of the container. In broadleaf trees, these large, wrapping roots must be cut prior to transplanting, or root distribution patterns and tree stability will be permanently affected. With container-grown palms, however, there is no need to cut such wrapping roots since large numbers of new, adventitious roots arising from the root initiation zone will initially supplement and will ultimately replace those early roots that were confined to the container. -
Astrocaryum Chambira)
See discussions, stats, and author profiles for this publication at: https://www.researchgate.net/publication/279205063 Chambira o cumare (Astrocaryum chambira) Chapter · January 2013 CITATIONS READS 0 1,427 1 author: Néstor García Pontificia Universidad Javeriana 42 PUBLICATIONS 236 CITATIONS SEE PROFILE Some of the authors of this publication are also working on these related projects: Investigación e innovación tecnológica y apropiación social de conocimiento científico de orquídeas nativas de Cundinamarca View project Demografía, manejo y conservación de Attalea nucifera (Arecaceae) en la cuenca del río Magdalena View project All content following this page was uploaded by Néstor García on 28 July 2015. The user has requested enhancement of the downloaded file. Cosechar sin destruir Aprovechamiento sostenible de palmas colombianas Rodrigo Bernal y Gloria Galeano Editores Bogotá, D. C., Colombia, octubre de 2013 Catalogación en la publicación Universidad Nacional de Colombia Cosechar sin destruir : aprovechamiento sostenible de palmas colombianas / editores Rodrigo Bernal y Gloria Galeano. -- Bogotá : Universidad Nacional de Colombia. Facultad de Ciencias. Instituto de Ciencias Naturales : PALMS : Colciencias, 2013 244 páginas : ilustraciones Incluye referencias bibliográficas ISBN : 978-958-761-611-8 1. Palmas – Colombia 2. Ecología de cultivos – Colombia 3. Industria de la palma - Tecnología poscosecha 4. Palmas - Distribución geográfica – Colombia 5. Silvicultura sostenible – Colombia 6. Etnobotánica – Colombia I. Bernal González, -
Ethnobotany of Riverine Populations from the Rio Negro, Amazonia (Brazil)
Journal of Ethnobiology 27(1): 46–72 Spring/Summer 2007 ETHNOBOTANY OF RIVERINE POPULATIONS FROM THE RIO NEGRO, AMAZONIA (BRAZIL) ANDRE´ A LEME SILVA,a JORGE TAMASHIROb and ALPINA BEGOSSIc aDepartamento de Ecologia, Instituto de Biocieˆncias Universidade de Sa˜o Paulo, Sa˜o Paulo, Brazil, CEP 05580-900 ^[email protected]& bDepartamento de Botaˆnica, UNICAMP Campinas, Sa˜o Paulo, Brazil ^[email protected]& cFisheries and Food Institute, Rua Coronel Quirino 1636, Campinas, Sa˜o Paulo 13025-002, Brazil, and Fisheries Management and Training Program, PREAC-UNICAMP ^[email protected]& ABSTRACT.—This paper presents a comparative study of plant knowledge and use in rural and urban areas in the municipality of Barcelos in the Rio Negro, Amazonas, Brazil, based on a total of 81 interviews. Using diversity indices (Shannon-Wiener), plant knowledge is compared among communities (urban- rural population), and between sex (male-female) and age (older or younger than 40 years) categories within each community. Among our informants, we found quantitative differences concerning the knowledge of medicinal plants between sex and age categories. Some individuals play a key role relating to medicinal plant knowledge, and steps should be taken in order to include them in management and conservation plans. Key words: ethnobotany, diversity indices, plant knowledge and use, Rio Negro, Brazilian Amazon. RESUMO.—Com base em um total de 81 entrevistas, no´s apresentamos um estudo etnobotaˆnico comparativo entre populac¸o˜es urbanas e rurais na municipalidade de Barcelos no Rio Negro, Amazonas, Brasil. Usando´ ındices de diversidade (Shannon-Wiener), o conhecimento de plantas e´ comparado entre as comunidades estudadas (populac¸a˜o urbana e rural), geˆnero (masculino e feminino) e categorias de idade (menos que 40 anos e mais que 40 anos de idade). -
Restoring Tropical Forests on Lands Mined for Bauxite: Examples from the Brazilian Amazon
Ecological Engineering 17 (2001) 219–239 www.elsevier.com/locate/ecoleng Restoring tropical forests on lands mined for bauxite: Examples from the Brazilian Amazon John A. Parrotta a,*, Oliver H. Knowles b a International Institute of Tropical Forestry, USDA Forest Ser6ice, P.O. Box 25000, Rı´o Piedras, PR 00928-5000, USA b C.P. 15, Santare´m, 68005.970 Para´, Brazil Accepted 19 August 2000 Abstract Restoring self-sustaining tropical forest ecosystems on surface mined sites is a formidable challenge that requires the integration of proven reclamation techniques and reforestation strategies appropriate to specific site conditions, including landscape biodiversity patterns. Restorationists working in most tropical settings are usually hampered by lack of basic information on the wide variety of native tree species that characterize the pre-disturbance forests, as well as insufficient understanding of the ecology of disturbance and natural recovery to design effective restoration programs. A notable exception to this is the forest restoration program developed since the early 1980s by a Brazilian bauxite mining company operating at Trombetas in Para´ State in central Amazonia. A systematic nursery and field research strategy was used to develop a reforestation program based on mixed plantings of more than 70 native old-growth forest tree species. This technique has been used to replant about 100 ha of deforested minelands each year over the past 15 years. Research in recent years has evaluated this approach and other, generally simpler, reforestation methods used at a smaller scale at this site. Post-plantation biodiversity development and other indicators of restoration success or sustainability were recorded. -
Behavior and Ecology of the White-Footed Tamarin (Saguinus Leucopus) in a Fragmented Landscape of Colombia
Mongabay.com Open Access Journal - Tropical Conservation Science Vol. 9 (2): 788-808, 2016 Research Article Behavior and ecology of the white-footed tamarin (Saguinus leucopus) in a fragmented landscape of Colombia: small bodied primates and seed dispersal in Neotropical forests A. Gabriela de Luna1, 2,*, Yesenia García-Morera1, 3 and Andrés Link1, 4, 5 1Fundación Proyecto Primates 2Departamento de Zoología y Antropología, Facultad de Biología, Universidad Complutense, España 3Instituto de Biología, Universidad de Antioquia, Colombia 4Departamento de Ciencias Biológicas, Universidad de los Andes, Colombia 5Facultad de Administración, Universidad de los Andes, Colombia *Corresponding author. Email: [email protected] Abstract Tamarins are small-bodied Neotropical primates that mainly feed on ripe fruits and insects, and supplement their diet with plant exudates, nectar, fungi and vertebrate prey. They are important seed dispersers in Neotropical forests as they are able to disperse a large number of small and me- dium-sized seeds from parental trees. In this paper, we describe the diet of the white-footed tama- rin (Saguinus leucopus) and its role as seed disperser in a fragmented landscape in Colombia. During a twelve month period, we collected data on activity patterns, ranging behavior and feeding ecol- ogy, as well as on habitat-wide forest productivity. S. leucopus fed from >95 plant species and spent 17% of their time feeding. We found a positive relationship between fruit consumption and ripe- fruit availability. Dietary diversity increased during periods of fruit scarcity, when the tamarins fed more on insects and exudates. During periods of fruit scarcity, they relied more heavily on the bor- ders of forest fragments and made occasional incursions into adjacent fragments across a matrix of pastures. -
Genetic Diversity of Dispersed Seeds Is Highly Variable Among Leks of the T Long-Wattled Umbrellabird
Acta Oecologica 86 (2018) 31–37 Contents lists available at ScienceDirect Acta Oecologica journal homepage: www.elsevier.com/locate/actoec Genetic diversity of dispersed seeds is highly variable among leks of the T long-wattled umbrellabird ∗ Kym Ottewella,c, Luke Brownea,b,d, Domingo Cabrerab, Jorge Olivob, Jordan Karubiana,b, a Department of Ecology and Evolutionary Biology, Tulane University, 400 Lindy Boggs Building, New Orleans, LA 70118, USA b Fundación para la Conservación de los Andes Tropicales, Mariano Hurtado N 50-89 y Vicente Herida, Quito, Ecuador c Department of Biodiversity, Conservation and Attractions, 17 Dick Perry Avenue, Kensington, Western Australia 6158, Australia d UCLA La Kretz Center for California Conservation Science, Institute of the Environment and Sustainability, Los Angeles, CA 90095, USA ARTICLE INFO ABSTRACT Keywords: Frugivorous animals frequently generate clumped distributions of seeds away from source trees, but genetic Alpha, beta, delta and gamma diversity consequences of this phenomenon remain poorly resolved. Seed dispersal of the palm Oenocarpus bataua by long- Allelic diversity wattled umbrellabirds Cephalopterus penduliger generates high seed densities in leks (i.e., multi-male display fl Gene ow sites), providing a suitable venue to investigate how dispersal by this frugivore may influence seed source di- Heterozygosity versity and genetic structure at local and landscape levels. We found moderate levels of maternal seed source Central place foraging diversity in primary seed rain across five leks in northwest Ecuador (unweighted mean alpha diversity α = 9.52, Seed dispersal α α – Ecuador weighted mean r = 3.52), with considerable variation among leks ( r range: 1.81 24.55).