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Thrinax Radiata Family: Arecaceae Florida Thatch Palm, Jamaican Thatch, Thatch Palm, Chit
Stephen H. Brown, Horticulture Agent Donna Cressman, Master Gardener Lee County Extension, Fort Myers, Florida (239) 533-7513 [email protected] http://lee.ifas.ufl.edu/hort/GardenHome.shtml Thrinax radiata Family: Arecaceae Florida thatch palm, Jamaican thatch, thatch palm, chit Florida Thatch Palm Synonyms (Discarded names): Cocothrinax martii, C. radiate, Thrinax floridana, T. martii, T. multiflora; T. wendlandiana Origin: Extreme southern mainland coast of Florida, Florida Keys, Bahamas, western Cuba, Cayman Islands, Jamaica, Hispaniola, Puerto Rico, Yucatan Peninsula, Honduras, Nicaragua U.S.D.A. Zone: 10A-12B (28°F leaf damage) Growth Rate: Slow Typical Height: 20’ Habit: Solitary; canopy of 12-20 leaves Crownshaft: None Leaf: Palmate, induplicate, circular, slightly folded; divided about halfway into segments that are split at the tips; pointed hastula Leaf Size: 4-5’ wide; segments 2.5’ long, 2” wide Salt Tolerance: High Drought Tolerance: High Wind Tolerance: High Light Requirements: Moderate, high Soil: Widely adaptable Nutritional Requirements: Low Potential Insect Pests: Aphids; scales Propagation: Seeds Human hazards: None Uses: Small gardens; containers; outdoors patios; roadways; parking lots; seasides; specimen Left: The infructescence (fruited stems) hang in a circle around the trunk, sometimes extending beyond the leaf. Natural Geographic Distribution The Florida Thatch Palm, Thrinax radiata, is indigenous to the extreme southern mainland coast of Florida, the Florida Keys, Bahamas, western Cuba, The Cayman Islands, Jamaica, Hispaniola, Puerto Rico, Honduras, Nicaragua, and the eastern coast of the Yucatan Peninsula in Mexico and Belize. In na- ture, this palm almost always grows within the range of salt-laden winds near coastal areas. It grows naturally in sandy or calcareous soils. -
Floral Anatomy of Chelyocarpus, Cryosophila, and Ltaya (Palmae)
19721 UHL: FLORAL ANATON,IY B9 Floral Anatomy of Chelyocarpus, Cryosophila, and ltaya (Palmae) Nlrar,rs W. Unr-* L. H. Bailey Hortorium, Cornell Uniuersity, Ithaca, New York 14850 This paper presentsthe floral anatomy Descripfions ol the Chelyocctrpus alliance to accom- CuBlvoc.q.npus(Fig. 1-7) . pany a current assessmentof the group including the descriptionof a new genus Chelyocarpwsulei is described from t'Moore, L972). Although reports of Moore anil Salazar 9494. Flowers, each floral anatomy in palms are few, those 4-5 mm. long and 2 by 4 mm. wide, completed have been valuable in deter- have two broadly ovate sepals, 2 rrrm' mining functions of floral organs and long by 2 mm. wide, which are distinct relationships among genera, and have or slightly joined at the base forming a provided new information on floral shallow cup around two distinct ovate structure in angiosperms (Uhl and petalsof aboutthe samesize. The androe- Moore, 1971). As the accompanying cium consists of seven (five-eight) paper (Moore, 1972) explains, the stamens in a distinctive arrangement. genera considered here are of special One stamen is opposite and sheathedby interest becausethey may form a primi- each sepal and the others form two rows tive alliance within the palms, and of two to three stamenseach, one row becausetwo species,ClrcIyocarpus dia- opposite each petal (Fig. 6). The nuerus and C. zrlel possessflor,al plans flower is thus wider along the axis of that are unique in rthefamily. petal insertion. Filaments of the stamens (Fig. 3a, b) are 2.5 mm.long, ventrally Mqteriqls qnd Methods expanded, and tightly encase the lower two-thirds of two (three, four) carpels. -
A Review of Animal-Mediated Seed Dispersal of Palms
Selbyana 11: 6-21 A REVIEW OF ANIMAL-MEDIATED SEED DISPERSAL OF PALMS SCOTT ZoNA Rancho Santa Ana Botanic Garden, 1500 North College Avenue, Claremont, California 91711 ANDREW HENDERSON New York Botanical Garden, Bronx, New York 10458 ABSTRACT. Zoochory is a common mode of dispersal in the Arecaceae (palmae), although little is known about how dispersal has influenced the distributions of most palms. A survey of the literature reveals that many kinds of animals feed on palm fruits and disperse palm seeds. These animals include birds, bats, non-flying mammals, reptiles, insects, and fish. Many morphological features of palm infructescences and fruits (e.g., size, accessibility, bony endocarp) have an influence on the animals which exploit palms, although the nature of this influence is poorly understood. Both obligate and opportunistic frugivores are capable of dispersing seeds. There is little evidence for obligate plant-animaI mutualisms in palm seed dispersal ecology. In spite of a considerable body ofliterature on interactions, an overview is presented here ofthe seed dispersal (Guppy, 1906; Ridley, 1930; van diverse assemblages of animals which feed on der Pijl, 1982), the specifics ofzoochory (animal palm fruits along with a brief examination of the mediated seed dispersal) in regard to the palm role fruit and/or infructescence morphology may family have been largely ignored (Uhl & Drans play in dispersal and subsequent distributions. field, 1987). Only Beccari (1877) addressed palm seed dispersal specifically; he concluded that few METHODS animals eat palm fruits although the fruits appear adapted to seed dispersal by animals. Dransfield Data for fruit consumption and seed dispersal (198lb) has concluded that palms, in general, were taken from personal observations and the have a low dispersal ability, while Janzen and literature, much of it not primarily concerned Martin (1982) have considered some palms to with palm seed dispersal. -
Lista De Palmas Cubanas I- Hemithrinax
ISSN 2519-7754 RNPS 2402 www.revistas.geotech.cu/index.php/abc ║LISTA DE ESPECIES║ Vol. 218, No.1 (enero-abril 2019): 1-10 Lista de Palmas Cubanas. I. Hemithrinax, Leucothrinax y Thrinax Cuban Palms Checklist. I. Hemithrinax, Leucothrinax and Thrinax Celio E. Moya López R SU N Autor para correspondencia: [email protected] Se actualiza la lista de táxones y de sinónimos nomenclaturales de los géneros Hemithrinax, Leucothrinax y Thrinax. Se designaron los lectotipos de Hemithrinax compacta y Leucothrinax morrisii, y se precisaron los lectotipos de otros nueve nombres. Sociedad Cubana de Botánica Calle Cuba 406 e/ Amargura y Brasil, Palabras clave: Arecaceae, Hemithrinax, Leucothrinax, Thrinax La Habana Vieja, La Habana, Cuba A S RAC Recibido: 01/06/2018 Aceptado: 21/01/2019 The list of taxa and nomenclatural synonyms of the genera Hemithrinax, Leucothrinax and Thrinax is updated. The lectotype of Hemithrinax compacta were designated and lectotypes of other ten names were specified. Key words: Arecaceae, Hemithrinax, Leucothrinax, Thrinax INTRODUCCIÓN Hemithrinax es un género endémico cubano, representa- do por tres especies y una variedad reconocida. Sus La familia Arecaceae Schultz Sch. (nom. cons.) está táxones se diferencian fácilmente de los de Thrinax o representada en Cuba por 15 géneros con 80 especies, Leucothrinax por presentar las venas transversales poco ocho híbridos y nueve táxones infraespecíficos (Moya y visibles, mientras que en éstos las venas transversales Leiva, 2000). De ellos, tres constituyen nuevos registros o son conspicuas (Lewis y Zona, 2008). cambios de estatus posteriores (Suárez, 2015; Verdecia, 2016; Moya et al., 2017; Moya y Méndez, 2018), lo cual Leucothrinax es un género monotípico, de distribución sugiere que la riqueza taxonómica de la familia en Cuba caribeña, representado por Leucothrinax morrisii aún no es totalmente conocida. -
Etnia Chatinos
Del nombre Los Chatinos se llaman a si mismos Kitsecha`tnio los términos cha`tnio, cha’tña y tasa ’jnyaJ son variantes usadas en distintas comunidades para designar su propia lengua que significa “palabra trabajosa”. Localización El territorio chatino se encuentra enclavado en la Sierra Madre del Sur, en el estado de Oaxaca. Se extiende de suroeste a noroeste en el Distrito de Juquila.La población chatina se concentra sobre todo en los municipios de Santos Reyes Nopala, San Juan Quiahije, San Miguel Panixtlahuaca, Santa Cruz Zenzontepec, San Juan Lachao, Santa María Temaxcaltepec, Tataltepec de Valdés, Santiago, Yaitepec, Santa Catarina, Yololtepec y Juchatenango. Las tomas en este archivo, provienen de las últimas cuatro localidades mencionadas. Aspectos económicos Su actividad económico principal es la agricultura tradicional de temporal. Dedican una pequeña porción de su tierra al cultivo de café. Alternan con su ciclo de producción la estrategia migratoria temporal a las fincas cafetaleras del Distrito de Juquila en donde se contratan como jornaleros para el corte de café, o a la costa, para trabajar en las plantaciones agrícolas. Organización social Sus autoridades tradicionales están organizadas en un sistema de cargos con funciones civiles y religiosas. La máxima autoridad es el consejo de ancianos que representa la mayor autoridad moral en el pueblo. El trabajo del campo liga a los chatinos con la tierra, la familia y la comunidad, proporcionando así las bases de su pertenencia social, (el individuo) hombre o mujer existen como miembros de una sociedad familiar, en la que se desarrolla su vida física, productiva y en la que se hereda el derecho de usos de tierra comunal. -
Las Palmeras En El Marco De La Investigacion Para El
REVISTA PERUANA DE BIOLOGÍA Rev. peru: biol. ISSN 1561-0837 Volumen 15 Noviembre, 2008 Suplemento 1 Las palmeras en el marco de la investigación para el desarrollo en América del Sur Contenido Editorial 3 Las comunidades y sus revistas científicas 1he scienrific cornmuniries and their journals Leonardo Romero Presentación 5 Laspalmeras en el marco de la investigación para el desarrollo en América del Sur 1he palrns within the framework ofresearch for development in South America Francis Kahny CésarArana Trabajos originales 7 Laspalmeras de América del Sur: diversidad, distribución e historia evolutiva 1he palms ofSouth America: diversiry, disrriburíon and evolutionary history Jean-Christopbe Pintaud, Gloria Galeano, Henrik Balslev, Rodrigo Bemal, Fmn Borchseníus, Evandro Ferreira, Jean-Jacques de Gran~e, Kember Mejía, BettyMillán, Mónica Moraes, Larry Noblick, FredW; Staufl'er y Francis Kahn . 31 1he genus Astrocaryum (Arecaceae) El género Astrocaryum (Arecaceae) . Francis Kahn 49 1he genus Hexopetion Burret (Arecaceae) El género Hexopetion Burret (Arecaceae) Jean-Cbristopbe Pintand, Betty MiJJány Francls Kahn 55 An overview ofthe raxonomy ofAttalea (Arecaceae) Una visión general de la taxonomía de Attalea (Arecaceae) Jean-Christopbe Pintaud 65 Novelties in the genus Ceroxylon (Arecaceae) from Peru, with description ofa new species Novedades en el género Ceroxylon (Arecaceae) del Perú, con la descripción de una nueva especie Gloria Galeano, MariaJosé Sanín, Kember Mejía, Jean-Cbristopbe Pintaud and Betty MiJJán '73 Estatus taxonómico -
Biodiversity in Forests of the Ancient Maya Lowlands and Genetic
Biodiversity in Forests of the Ancient Maya Lowlands and Genetic Variation in a Dominant Tree, Manilkara zapota (Sapotaceae): Ecological and Anthropogenic Implications by Kim M. Thompson B.A. Thomas More College M.Ed. University of Cincinnati A Dissertation submitted to the University of Cincinnati, Department of Biological Sciences McMicken College of Arts and Sciences for the degree of Doctor of Philosophy October 25, 2013 Committee Chair: David L. Lentz ABSTRACT The overall goal of this study was to determine if there are associations between silviculture practices of the ancient Maya and the biodiversity of the modern forest. This was accomplished by conducting paleoethnobotanical, ecological and genetic investigations at reforested but historically urbanized ancient Maya ceremonial centers. The first part of our investigation was conducted at Tikal National Park, where we surveyed the tree community of the modern forest and recovered preserved plant remains from ancient Maya archaeological contexts. The second set of investigations focused on genetic variation and structure in Manilkara zapota (L.) P. Royen, one of the dominant trees in both the modern forest and the paleoethnobotanical remains at Tikal. We hypothesized that the dominant trees at Tikal would be positively correlated with the most abundant ancient plant remains recovered from the site and that these trees would have higher economic value for contemporary Maya cultures than trees that were not dominant. We identified 124 species of trees and vines in 43 families. Moderate levels of evenness (J=0.69-0.80) were observed among tree species with shared levels of dominance (1-D=0.94). From the paleoethnobotanical remains, we identified a total of 77 morphospecies of woods representing at least 31 plant families with 38 identified to the species level. -
Seed Geometry in the Arecaceae
horticulturae Review Seed Geometry in the Arecaceae Diego Gutiérrez del Pozo 1, José Javier Martín-Gómez 2 , Ángel Tocino 3 and Emilio Cervantes 2,* 1 Departamento de Conservación y Manejo de Vida Silvestre (CYMVIS), Universidad Estatal Amazónica (UEA), Carretera Tena a Puyo Km. 44, Napo EC-150950, Ecuador; [email protected] 2 IRNASA-CSIC, Cordel de Merinas 40, E-37008 Salamanca, Spain; [email protected] 3 Departamento de Matemáticas, Facultad de Ciencias, Universidad de Salamanca, Plaza de la Merced 1–4, 37008 Salamanca, Spain; [email protected] * Correspondence: [email protected]; Tel.: +34-923219606 Received: 31 August 2020; Accepted: 2 October 2020; Published: 7 October 2020 Abstract: Fruit and seed shape are important characteristics in taxonomy providing information on ecological, nutritional, and developmental aspects, but their application requires quantification. We propose a method for seed shape quantification based on the comparison of the bi-dimensional images of the seeds with geometric figures. J index is the percent of similarity of a seed image with a figure taken as a model. Models in shape quantification include geometrical figures (circle, ellipse, oval ::: ) and their derivatives, as well as other figures obtained as geometric representations of algebraic equations. The analysis is based on three sources: Published work, images available on the Internet, and seeds collected or stored in our collections. Some of the models here described are applied for the first time in seed morphology, like the superellipses, a group of bidimensional figures that represent well seed shape in species of the Calamoideae and Phoenix canariensis Hort. ex Chabaud. -
Technical Background Document in Support of the Mid-Term Review of the Global Strategy for Plant Conservation (GSPC)
Technical background document for the mid-term review of the GSPC Technical background document in support of the mid-term review of the Global Strategy for Plant Conservation (GSPC) Compiled by Botanic Gardens Conservation International (BGCI) in association with the Global Partnership for Plant Conservation (GPPC) and the Secretariat of the Convention on Biological Diversity 1 Technical background document for the mid-term review of the GSPC Contents Introduction ......................................................................................................................................5 Section 1: Progress in national / regional implementation of the GSPC ................................................6 The GSPC and National / Regional Biodiversity Strategies and Action Plans ........................................... 6 Progress in plant conservation as reported in 5th National Reports to the CBD ...................................... 7 Reviews from regional workshops ............................................................................................................ 8 Progress in China ....................................................................................................................................... 8 Progress in Brazil ....................................................................................................................................... 9 Progress in Europe ................................................................................................................................. -
Effect of Temperature and Desiccation on the Germination of Thrinax Morrisii
5. Bell, W. D. 1973. The role of triploids in Amaryllis hybridization. 23. Goedert, R. D. 1961. Hadeco amaryllis hybrids grown in South Af Plant Life 29:59-61. rica. Plant Life 17:85-86. 6. Bell, W. D. 1974. Stomatal size as an indication of Amaryllis polyp- 24. Goedert, R. D. 1982. The continuing pursuit of yellow. Plant Life loidy. Plant Life 30:89-90. 38:61-63. 7. Bell, W. D. 1977a. More potentials in Amaryllis breeding. Plant Life 25. Hayward, W. 1934. The Mead strain of the Nehrling amaryllis. Year 33:65-69. book of the Amer. Amaryllis Soc. 1:62-63. 8. Bell, W. D. 1977b. Double flowered Amaryllis. Proc. Fla. State Hort. 26. Kaicker, U. S. and H. P. Singh. 1979. Role of mutation breeding in Soc. 90:121-122. amaryllis. Plant Life 35:66-73. 9. Blossfeld, H. 1973. Breeding for yellow amaryllis hybrids. Plant Life 27. Ludwig 8c Co. 1948. The Ludwig hybrid Amaryllis. Herbertia 15:69. 29:56-58. 28. Meerow, A. W. 1987. Chromosome cytology of Eucharis, Caliphruria 10. Bose, T. K. and B. K. Jana. 1977 Regeneration of plantlets in Hippeas- and Urceolina (Amaryllidaceae). Amer. J. Bot. 74:1560-1576. trum hybridum in vitro. Indian J. Hort. 34:446-447. 29. Naranjo, C. A. and A. B. Andrada. 1975. El cariotipo fundamental 11. Buck, Q. Q. 1961. First flowering of newly imported Boshoff-Mostert en el genero Hippeastrum Herb. (Amaryllidaceae). Darwinia 19:566- hybrid amaryllis. Plant Life 17:84-85. 582. 12. Buck, Q. Q. 1978. Amaryllis breeding potentials - 1977. -
OECD Territorial Grids
BETTER POLICIES FOR BETTER LIVES DES POLITIQUES MEILLEURES POUR UNE VIE MEILLEURE OECD Territorial grids August 2021 OECD Centre for Entrepreneurship, SMEs, Regions and Cities Contact: [email protected] 1 TABLE OF CONTENTS Introduction .................................................................................................................................................. 3 Territorial level classification ...................................................................................................................... 3 Map sources ................................................................................................................................................. 3 Map symbols ................................................................................................................................................ 4 Disclaimers .................................................................................................................................................. 4 Australia / Australie ..................................................................................................................................... 6 Austria / Autriche ......................................................................................................................................... 7 Belgium / Belgique ...................................................................................................................................... 9 Canada ...................................................................................................................................................... -
Palm Buyers Guide Phil Only
Palm Buyer’s Guide These suggestions are for Southern California. Please investigate the best species for your area. Tall Palms for Full Sun Medium Palms for Full Sun Short Palms for Full Sun Above 30-35 Feet of Height 15 to 30 Feet of Height 5 to 15 Feet of Height Acrocomia species Acoelorrhaphe wrightii Hyophorbe sp. other Allagoptera species Archontophoenix species Arenga species Kentiopsis oliviformis Arenga engleri Arenga pinnata Beccariophoenix species Livistona chinensis Brahea dulcis , decum- Carpentaria species (in tropical areas) Bismarckia nobilis Livistona decipiens, others bens and others Nannorrhops ritchiana Caryota, some single trunk species Brahea armata Chamaerops cerifera Ceroxylon species Phoenix, some species Brahea species other Polyandrococos caudescens Chamaerops h. dwarfs Clinostigma species Butia capitata, others Pritchardia, some species Coccothrinax, some sp. Jubaea chilensis Chamaerops humilis Pseudophoenix sargentii Dypsis lutescens (coast) Livistona, some species Chambeyronia (coastal) Ptychosperma e. (coastal) Dypsis, some species Parajubaea species Coccothrinax species Ravenea glauca, others Hyophorbe (bottle palm) Phoenix, some species Copernicia species Rhopalostylis s. (coastal) Phoenix roebelinii Ravenea, some species Dypsis decaryi Sabal, some species Pritchardia, dwarf sp. Roystonea species Dypsis species, various Syagrus botryophora Ravenea hildebrandtii Syagrus coronata, others Sabal, some species Euterpe edulis Rhapidophyllum hystrix Thrinax species Syagrus, some species like oleracea & sancona