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Biggest Trees of the World Pub 13-2
Dendrology Series WSFNR13-2 January 2013 Tallest, Biggest, & Oldest Trees by Dr. Kim D. Coder, Professor of Tree Biology & Health Care Warnell School of Forestry & Natural Resources, University of Georgia Trees have a long relationship with people. They are both utility and amenity. Trees can evoke awe, mysticism, and reverence. Trees represent great public and private values. Trees most noticed and celebrated by people and communities are the one-tenth of one-percent of trees which approach the limits of their maximum size, reach, extent, and age. These singular, historical, culturally significant, and massive trees become symbols and icons of life on Earth, and our role in environmental stewardship and sustainability. What Is A Tree? Figure 1 is a conglomeration of definitions and concepts about trees from legal and word defini- tions in North America. For example, 20 percent of all definitions specifically state a tree is a plant. Concentrated in 63% of all descriptors for trees are four terms: plant, woody, single stem, and tall. If broad stem diameter, branching, and perennial growth habit concepts are added, 87% of all the descrip- tors are represented. At its most basic level, defining a tree is not species based, but is a structural definition. A tree is represented by a type of plant architecture recognizable by non-technical people. The most basic con- cepts for defining a tree are -- a large, tall, woody, perennial plant with a single, unbranched, erect, self- supporting stem holding an elevated and distinct crown of branches greater than 10 feet in height and greater than 3 inches in diameter. -
Appendix 1: Maps and Plans Appendix184 Map 1: Conservation Categories for the Nominated Property
Appendix 1: Maps and Plans Appendix184 Map 1: Conservation Categories for the Nominated Property. Los Alerces National Park, Argentina 185 Map 2: Andean-North Patagonian Biosphere Reserve: Context for the Nominated Proprty. Los Alerces National Park, Argentina 186 Map 3: Vegetation of the Valdivian Ecoregion 187 Map 4: Vegetation Communities in Los Alerces National Park 188 Map 5: Strict Nature and Wildlife Reserve 189 Map 6: Usage Zoning, Los Alerces National Park 190 Map 7: Human Settlements and Infrastructure 191 Appendix 2: Species Lists Ap9n192 Appendix 2.1 List of Plant Species Recorded at PNLA 193 Appendix 2.2: List of Animal Species: Mammals 212 Appendix 2.3: List of Animal Species: Birds 214 Appendix 2.4: List of Animal Species: Reptiles 219 Appendix 2.5: List of Animal Species: Amphibians 220 Appendix 2.6: List of Animal Species: Fish 221 Appendix 2.7: List of Animal Species and Threat Status 222 Appendix 3: Law No. 19,292 Append228 Appendix 4: PNLA Management Plan Approval and Contents Appendi242 Appendix 5: Participative Process for Writing the Nomination Form Appendi252 Synthesis 252 Management Plan UpdateWorkshop 253 Annex A: Interview Guide 256 Annex B: Meetings and Interviews Held 257 Annex C: Self-Administered Survey 261 Annex D: ExternalWorkshop Participants 262 Annex E: Promotional Leaflet 264 Annex F: Interview Results Summary 267 Annex G: Survey Results Summary 272 Annex H: Esquel Declaration of Interest 274 Annex I: Trevelin Declaration of Interest 276 Annex J: Chubut Tourism Secretariat Declaration of Interest 278 -
Downloaded from Brill.Com10/02/2021 07:21:54PM Via Free Access 126 IAWA Journal, Vol
IAWA Journal, Vol. 28 (2), 2007: 125-137 WOOD ULTRASTRUCTURE OF ANCIENT BURIED LOGS OF FITZROYA CUPRESSOlDES Maria A. Castro1 and Fidel A. Roig2 SUMMARY The anatomy and ultrastructure of subfossil wood of Fitzroya cup res soides from the late Pleistocene (>50,000 14C years before present) were compared with those of extant F. cupressoides trees from southern Chile, using light microscopy (polarized light and ftuorescence), scanning elec tron microscopy coupled with an energy dispersive X-ray spectroscopy system, and transmission electron microscopy. The ancient wood showed an unchanged gross wood structure, loss of cell wall birefringence, loss of lignin autoftuorescence, and a loss of the original microfibrillar pat tern. The energy dispersive X-ray spectroscopy analysis indicated higher than normal contents of S, Cl, and Na in subfossil wood. Ultrastructural modifications in the cell wall of the subfossil wood could have important implications for further studies involving isotopic and wood anatomical measurements of ancient wood. Key words: Fitzroya cupressoides, Pleistocene subfossil wood, cell wall ultrastructure, TEM, SEM-EDXA analysis, wood anatomy. INTRODUCTION The temperate rain forest of South America has a very rich tree species assemblage with a high level of endemism (Arroyo et al. 1993). One of the natural endemies is Fitzroya cupressoides (Molina) I.M.lohnston (alerce, Cupressaceae), a tree species that grows under a relatively low annual mean temperature and high precipitation in areas ofthe southernAndes ofChile and southwesternArgentina. Tree-ring analysis revealed that Fitzroya is a slow-growing tree and is one of the longest-lived tree species in the world, known to reach up to around 3,500 years of age (Lara & Villalba 1993). -
Plasticidad Fenotípica En Anuros Patagónicos De Los
PLASTICIDAD FENOTÍPICA EN ANUROS PATAGÓNICOS DE LOS GÉNEROS PLEURODEMA Y RHINELLA: RESPUESTAS AL HIDROPERÍODO Y A LOS DEPREDADORES TESIS PARA OPTAR AL GRADO DE DOCTOR EN CIENCIAS BIOLÓGICAS AUTOR: LIC. FABIÁN GASTÓN JARA DIRECTORA: DRA. MARÍA G. PEROTTI CO-DIRECTORA: DRA. CARMEN A. ÚBEDA San Carlos de Bariloche Junio de 2010 ÍNDICE TABLA DE CONTENIDOS Agradecimientos iv Resumen vi Abstract x Introducción General 1 CAPÍTULOS I. Área de estudio e historia natural de las especies de anuros 9 Aspectos generales del área de estudio 9 Humedales censados 9 Características físico-químicas de los humedales estudiados 19 Vegetación de los humedales 23 Historia natural de las especies de anuros estudiadas 26 II. Respuestas del crecimiento, del desarrollo y de la metamorfosis de renacuajos de Pleurodema y Rhinella frente al hidroperíodo 32 Introducción 32 Metodología 34 Trabajo de campo 34 Trabajo experimental 36 Preparación y acondicionamiento de los experimentos 36 Análisis estadísticos 39 Datos de campo 39 Datos de laboratorio 39 Resultados 40 Trabajo de campo 40 Reproducción 40 Desarrollo y crecimiento larvario 43 Peso de los metamorfos 51 Relaciones entre periodo larvario, peso de los metamorfos y permanencia del ambiente 55 Trabajo experimental 59 Especies de Pleurodema 59 Rhinella spinulosa 60 Índice de plasticidad fenotípica 64 Discusión 65 III. Depredación de renacuajos de Pleurodema y Rhinella por insectos acuáticos 70 Introducción 70 Metodología 73 Trabajo de campo 73 Ensamble de depredadores insectos, abundancias relativas y fenología 74 Ensamble de anuros 74 i ÍNDICE Trabajo experimental 75 Preparación y monitoreo del experimento 76 Análisis estadísticos 77 Resultados 77 Trabajo de campo 77 Riqueza y diversidad de especies de insectos depredadores 77 Presencia de especies de anuros en el área 78 Patron temporal de ocurrencia de los insectos depredadores 80 Abundancias relativas de depredadores 85 Trabajo experimental 91 Discusión 94 IV. -
Plan De Manejo Parque Nacional Vicente Pérez Rosales
CORPORACIÓN NACIONAL FORESTAL Departamento de Áreas Protegidas Región de Los Lagos PLAN DE MANEJO PARQUE NACIONAL VICENTE PÉREZ ROSALES Elaborado por SURAMBIENTE LTDA Puerto Montt, 2015 EQUIPO DE TRABAJO - SURAMBIENTE NOMBRE TÍTULO PROFESIONAL ROL EN EL EQUIPO Coordinador y Encargado de Planificación Ing. Agrónomo (U. de Chile); Reinaldo Troncoso San Territorial. Diplomado Desarrollo Económico Martín Estudio de Zonas de Influencia y Zonas Territorial (UACH) Homogéneas Encargado de Metodología y SIG. Aldo Farías Herrera Ingeniero Forestal (UACH) Estudio de Zonas de Influencia y Zonas Homogéneas Bioquímico (UACH), Doctor en Estudio de Zonas de Influencia y Zonas José Núñez Navarro Ciencias, Mención Zoología Homogéneas. Levantamiento de Información (UACH) de componentes bióticos Licenciado en Cs. Biológicas Estudio de Zonas de Influencia y Zonas (UACH); Natural History Jorge Valenzuela Rojas Homogéneas. Levantamiento de Información Collections Management de componentes bióticos (Smithsonian Institute) Encargado Análisis Sociocultural y Facilitador Esteban Figueroa Oliva Antropólogo (UACH) de Talleres. Levantamiento Información de componentes culturales Ingeniero en Conservación de Levantamiento de Información de Juan Pablo Cárdenas Moll Recursos Naturales (E) (UACH) componentes bióticos y físicos. Digitador SIG Levantamiento de Información de Jaime Bravo Quezada Ingeniero Forestal (E) (UACH) componentes bióticos y físicos. Estudio de Zonas de Influencia y Zonas Homogéneas Levantamiento de Información de Profesor de Biología, Química y Rodolfo Figueroa Martínez componentes bióticos. Estudio de Zonas de Cs. Naturales (UACH). Influencia y Zonas Homogéneas Eduardo Henríquez Ingeniero en Gestión de Turismo Levantamiento Información de componentes Domínguez (U. San Sebastián) culturales, Estudio Zonas Influencia y Edición. Licenciada en Historia (PUC); Encargada de Producción y Facilitación de Ángela González Peña Profesora en Ciencias Sociales Talleres. -
Bovedas Encamonadas: Origen, Evolucion, Geometria Y Construccion Entre Los Siglos Xvii Y Xviii En El Virreinato De Peru
UNIVERSIDAD POLITÉCNICA DE MADRID ESCUELA TECNICA SUPERIOR DE ARQUITECTURA DEPARTAMENTO DE ESTRUCTURAS DE EDIFICACION PROGRAMA: MECANICA DE LAS ESTRUCTURAS ANTIGUAS Tesis Doctoral: BOVEDAS ENCAMONADAS: ORIGEN, EVOLUCION, GEOMETRIA Y CONSTRUCCION ENTRE LOS SIGLOS XVII Y XVIII EN EL VIRREINATO DE PERU Doctorando: Arq. PEDRO AUGUSTO HURTADO VALDEZ Directores: Dr. Arq. ENRIQUE NUERE MATAUCO Dr. Arq. JOSE LUIS FERNANDEZ CABO MADRID – 2011 Tribunal nombrado por el Mgfco. y Excmo. Sr. Rector de la Universidad Politécnica de Madrid, el día _____ de _______________ de 20_____ . Presidente D. _____________________________________________________ Vocal D. _____________________________________________________ Vocal D. _____________________________________________________ Vocal D. _____________________________________________________ Secretario D. _____________________________________________________ Realizado el acto de defensa y lectura de la Tesis el día _____ de _______________ de 20_____ . En ________________________ . Calificación: _________________________ EL PRESIDENTE LOS VOCALES EL SECRETARIO II RESUMEN Desde la creación del Virreinato del Perú, en el siglo XVI, los arcos, bóvedas y cúpulas se acostumbraban a levantar con piedra y fábrica. Sin embargo estas tierras eran sacudidas periodicamente por terremotos, produciendo el colapso de la mayoría de estas edificaciones. Para el siglo XVII los alarifes ya habían experimentado diversas maneras de levantar bóvedas, sin haberse encontrado una respuesta razonable en términos de tiempo, economía -
Supporting Information
Supporting Information Mao et al. 10.1073/pnas.1114319109 SI Text BEAST Analyses. In addition to a BEAST analysis that used uniform Selection of Fossil Taxa and Their Phylogenetic Positions. The in- prior distributions for all calibrations (run 1; 144-taxon dataset, tegration of fossil calibrations is the most critical step in molecular calibrations as in Table S4), we performed eight additional dating (1, 2). We only used the fossil taxa with ovulate cones that analyses to explore factors affecting estimates of divergence could be assigned unambiguously to the extant groups (Table S4). time (Fig. S3). The exact phylogenetic position of fossils used to calibrate the First, to test the effect of calibration point P, which is close to molecular clocks was determined using the total-evidence analy- the root node and is the only functional hard maximum constraint ses (following refs. 3−5). Cordaixylon iowensis was not included in in BEAST runs using uniform priors, we carried out three runs the analyses because its assignment to the crown Acrogymno- with calibrations A through O (Table S4), and calibration P set to spermae already is supported by previous cladistic analyses (also [306.2, 351.7] (run 2), [306.2, 336.5] (run 3), and [306.2, 321.4] using the total-evidence approach) (6). Two data matrices were (run 4). The age estimates obtained in runs 2, 3, and 4 largely compiled. Matrix A comprised Ginkgo biloba, 12 living repre- overlapped with those from run 1 (Fig. S3). Second, we carried out two runs with different subsets of sentatives from each conifer family, and three fossils taxa related fi to Pinaceae and Araucariaceae (16 taxa in total; Fig. -
Categorización Del Estado De Conservación De Los Anfibios De La República Argentina
Cuad. herpetol. 26 (Supl. 1): 131-159 (2012) Categorización del estado de conservación de los anfibios de la República Argentina Marcos Vaira1, Mauricio Akmentins1, Maximiliano Attademo2, Diego Baldo3, Diego Barrasso4, Sebastián Barrionuevo5, Néstor Basso4, Boris Blotto5, Samanta Cairo6, Rodrigo Cajade7, Jorge Céspedez8, Valeria Corbalán9, Paula Chilote10, Marta Duré7, Camila Falcione8, Daiana Ferraro5, F. Romina Gutierrez10, Maria del Rosario Ingaramo8, Celina Junges2, Rafael Lajmanovich2, Julián N. Lescano11, Federico Marangoni3, Liza Martinazzo4, Romina Marti10, Liliana Moreno10, Guillermo Sebastián Natale12, Juan Manuel Pérez Iglesias10, Paola Peltzer2, Lorena Quiroga13, Sergio Rosset14, Eduardo Sanabria13,15, Laura Sanchez2, Eduardo Schaefer7, Carmen Úbeda16, Víctor Zaracho8 1 CONICET - Centro de Investigaciones Básicas y Aplicadas (CIBA), Universidad Nacional de Jujuy, Gorriti 237 (4600), S. S. Jujuy, Argentina - Instituto de Bio y GeoCiencias del NOA (IBIGEO) Museo de Ciencias Naturales, Uni- versidad Nacional de Salta. Mendoza 2 (4400), Salta, Argentina. 2 Facultad de Bioquímica y Ciencias Biológicas, Universidad Nacional del Litoral. (3000), Santa Fé, Argentina. 3 Laboratorio de Genética Evolutiva, Instituto de Biología Subtropical, FCEQyN, CONICET-UNaM, Posadas, Misiones, Argentina. 4 Centro Nacional Patagónico (CENPAT-CONICET). Blvd. Brown 2915 (1900), Puerto Madryn, Argentina. 5 Museo Argentino de Ciencias Naturales “Bernardino Rivadavia” Av. Angel Gallardo 470 (1405), Buenos Aires, Argentina. 6 GEKKO - Grupo de Estudios en Conservación y Manejo, Universidad Nacional del Sur. San Juan 670 (8000), Bahía Blanca, Argentina. 7 Centro de Ecología Aplicada del Litoral (CONICET, UNNE), Ruta 5, km 2.5 (3400), Corrientes, Argentina. 8 Laboratorio de Herpetología. Facultad de Ciencias Exactas y Naturales y Agrimensura. Universidad Nacional del Nordeste. Av. Libertad 5470 (3400), Corrientes, Argentina. 9 Instituto Argentino de Investigaciones de las Zonas Áridas - IADIZA - CCT - Mendoza - CONICET. -
Sequoia Sempervirens) and Its 2 Implications for Explaining the Rarity of Polyploidy in Conifers 3 Alison Dawn Scott, Noah Stenz, David A
bioRxiv preprint doi: https://doi.org/10.1101/030585; this version posted November 3, 2015. The copyright holder for this preprint (which was not certified by peer review) is the author/funder. All rights reserved. No reuse allowed without permission. 1 Whole genome duplication in coast redwood (Sequoia sempervirens) and its 2 implications for explaining the rarity of polyploidy in conifers 3 Alison Dawn Scott, Noah Stenz, David A. Baum 4 Department of Botany, University of Wisconsin, Madison, 430 Lincoln Dr., Madison WI 53706 5 SUMMARY 6 • Whereas polyploidy is common and an important evolutionary factor in most land 7 plant lineages it is a real rarity in gymnosperms. Coast redwood (Sequoia 8 sempervirens) is the only hexaploid conifer and one of just two naturally 9 polyploid conifer species. Numerous hypotheses about the mechanism of 10 polyploidy in Sequoia and parental genome donors have been proffered over the 11 years, primarily based on morphological and cytological data, but it remains 12 unclear how Sequoia became polyploid and why this lineage overcame an 13 apparent gymnosperm barrier to whole-genome duplication (WGD). 14 • We sequenced transcriptomes and used phylogenetic inference, Bayesian 15 concordance analysis, and paralog age distributions to resolve relationships 16 among gene copies in hexaploid coast redwood and its close relatives. 17 • Our data show that hexaploidy in the coast redwood lineage is best explained by 18 autopolyploidy or, if there was allopolyploidy, this was restricted to within the 19 Californian redwood clade. We found that duplicate genes have more similar 20 sequences than would be expected given evidence from fossil guard cell size 21 which suggest that polyploidy dates to the Eocene. -
Anfibios De Chile, Un Desafío Para La Conservación Anfibios De Chile, Un Desafío Para La Conservación
Anfibios de Chile, un desafío para la conservación Anfibios de Chile, un desafío para la conservación. Gabriel Lobos, Marcela Vidal, Claudio Correa, Antonieta Labra, Helen Díaz-Páez, Andrés Charrier, Felipe Rabanal, Sandra Díaz & Charif Tala Datos del libro Edición noviembre 2013 ISBN 978-956-7204-46-5 Tiraje 2000 ejemplares Diseño y diagramación Francisca Villalón O, Ministerio del Medio Ambiente Cita sugerida LOBOS G, VIDAL M, CORREA C, LABRA A, DÍAZ - PÁEZ H, CHARRIER A, RABANAL F, DÍAZ S & TALA C (2013) Anfibios de Chile, un desafío para la conservación. Ministerio del Medio Ambiente, Fundación Facultad de Ciencias Veterinarias y Pecuarias de la Universidad de Chile y Red Chilena de Herpetología. Santiago. 104 p. Permitida la reproducción de los textos y esquemas para fines no comerciales, citando la fuente de origen. Prohibida la reproducción de las fotos sin permiso de su autor. Impresión Gráfhika Impresores Foto de la portada Sapo de Bullock (Telmatobufo bullocki), foto de Andrés Charrier Anfibios de Chile, un desafío para la conservación Gabriel Lobos, Marcela Vidal, Claudio Correa, Antonieta Labra, Helen Díaz-Páez, Andrés Charrier, Felipe Rabanal, Sandra Díaz & Charif Tala Ministerio del Medio Ambiente Fundación Facultad de Ciencias Veterinarias y Pecuarias de la Universidad de Chile Red Chilena de Herpetología I. II. Los anfibios, Estado de patrimonio natural y conservación de cultural de nuestro los anfibios país 8 28 III. Prólogo 7 Las causas de la declinación de los 40 anfibios Índice 88 VI. IV. Reseña de algunas 60 Conocimiento de los especies 72 anfibios en Chile: un aporte para su V. conservación Actuando para la conservación de los anfibios onocer a los anfibios implica introducirse convierte en responsables de su conservación a Prólogo en un mundo sorprendente, no sólo por su nivel mundial. -
Research Report South American Chronology
Fitzroya Cupressoides Yields 1534- Year Long South American Chronology Item Type Article Authors Boninsegna, José A.; Holmes, Richard L. Citation Boninsegna, J.A., Holmes, R.L. 1985. Fitzroya cupressoides yields 1534-year long South American chronology. Tree-Ring Bulletin 45:37-42. Publisher Tree-Ring Society Journal Tree-Ring Bulletin Rights Copyright © Tree-Ring Society. All rights reserved. Download date 29/09/2021 16:30:06 Link to Item http://hdl.handle.net/10150/261336 TREE -RING BULLETIN, Vol. 45, 1985 RESEARCH REPORT FITZROYA CUPRESSOIDES YIELDS 1534 -YEAR LONG SOUTH AMERICAN CHRONOLOGY JOSÉ A. BONINSEGNA Instituto Argentino de Nivolo gia y Glaciología Mendoza - Argentina and RICHARD L. HOLMES Laboratory of Tree -Ring Research University of Arizona Tucson, Arizona ABSTRACT The longest tree -ring chronologies for the Southern Hemisphere published to date go back to A.D. 1011 in central Chile; 1028 in Tasmania, Australia; 1140 in western Argentina; and 1256 on the North Island, New Zealand. For paleoclimatic and other studies longer time series would be very desirable. Here we report on the first successful crossdating and chronology development for Fitzroya cupressoides,a redwood -like conifer in western Argentina, which goes back to 441 and exhibits desirable statistical characteristics. INTRODUCTION Fitzroya cupressoides (Molina (Johnson)), common name "alerce," is a tall conifer which grows in the subantarctic forest of Argentina and Chile. The species is long - lived, a highly desirable characteristic in the development of tree -ring chronologies. Increment core samples of Fitzroya cupressoides were collected from adjacent sites by Schulman in 1949, Lerman in 1962, and by a group of us under the direction of LaMarche, in 1975. -
9766 Prodoc Coastal Landscapes Chile 24 05
PROJECT DOCUMENT SECTION 1: PROJECT IDENTIFICATION 1.1 Project title: Mainstreaming biodiversity conservation and sustainable landscape management of watersheds containing wetlands within Chile's South Center Biodiversity Hotspot through reformed coastal planning frameworks 1.2 Project number: GEF ID 9766 GFL/ PMS: 1.3 Project type: FSP 1.4 Trust Fund: GEF 1.5 Strategic objectives: GEF strategic long-term objective: BD-4, Program 9; LD-3, Program 4 Strategic programme for GEF VI: 1.6 UNEP priority: Ecosystem Management 1.7 Geographical scope: National 1.8 Mode of execution: External 1.9 Project executing organization: Ministry of the Environment (EM) 1.10 Duration of project: 60 months Commencing: July 2019 Completion: June 2024 1.11 Cost of project US$ % Cost to the GEF Trust Fund 5,146,804 20,3 Co-financing Cash EM (Ministry of Environment) 4.516.613 17,8 MINVU (Ministry of Housing and Urbanization) 583.333 2,3 MOP –DGA (General Water Department) 48.333 0,2 1 MOP – DOP (Port Works Department) 8.166.667 32,2 MBN (Ministry of Public Property) 214.955 0,8 MINAGRI (Ministry of Agriculture) 880.417 3,5 SUBDERE (Under ministry for regional development) 102.667 0,4 Arauco Forest Company 68.333 0,3 Audubon International 205.000 0,8 Centro Neotropical de Entrenamiento en Humedales 356.026 1,4 Sub-total Cash 15.142.344 59,6 Co-financing In-kind EM (Ministry of Environment) 2.986.287 11,8 MINVU (Ministry of Housing and Urbanization) 0 0 MOP –DGA (General Water Department) 12.500 0,0 MOP – DOP (Port Works Department) 890.000 3,5 MBN (Ministry of