Program and Abstracts of Abies 2016
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Formation of Spatial Mosaic of Abies Nephrolepis (Pinaceae) Populations in Korean Pine- Broadleaved Forests in the South of Russian Far East
Rastitelnye Resursy. 53(4): 480—495, 2017 FORMATION OF SPATIAL MOSAIC OF ABIES NEPHROLEPIS (PINACEAE) POPULATIONS IN KOREAN PINE- BROADLEAVED FORESTS IN THE SOUTH OF RUSSIAN FAR EAST © T. Ya. Petrenko, *, 1, 2 A. M. Omelko, 1A. A. Zhmerenetsky, 1 O. N. Ukhvatkina,1 L. A. Sibirina1 1 Federal Scientific center of the East Asia terrestrial biodiversity FEB RAS, Vladivostok, Russia 2Far Eastern Federal University, Vladivostok, Russia *E-mail: [email protected] SUMMARY We studied structure and described formation of Abies nephrolepis (Trautv.) Maxim. population mosaic in Korean pine-broadleaved forest of the Sikhote-Alin mountain range in the south of Russian Far East. The study was performed on two permanent sample plots (1.5 ha and 10.5 ha) established in primary forest of Verhneussuriysky Research Station of the Federal Scientific center of the East Asia terrestrial biodiversity, FEB RAS. One of the permanent sample plots (10.5 ha) was specifically designed for studying tree population mosaic. It covers an area necessary for the analysis of population structure of the dominant tree species. To describe the population mosaics we use demographic approach that allows to consider specific features of plant ontogeny. It is established, that mosaic structure transforms from contagious (immature plants) to normal (generative plants) distribution. Mosaic of generative plants is formed at the time of transition from immature to virginal ontogenetic stage. Unlike mosaic of Picea ajanensis (Siebold et Zucc.) Carr., where plants continuously accumulated starting from virginal stage, mosaic of A. nephrolepis continues to thin out starting from immature stage. Thus, this species is characterized by R-strategy. -
EVERGREEN TREES for NEBRASKA Justin Evertson & Bob Henrickson
THE NEBRASKA STATEWIDE ARBORETUM PRESENTS EVERGREEN TREES FOR NEBRASKA Justin Evertson & Bob Henrickson. For more plant information, visit plantnebraska.org or retreenbraska.unl.edu Throughout much of the Great Plains, just a handful of species make up the majority of evergreens being planted. This makes them extremely vulnerable to challenges brought on by insects, extremes of weather, and diseases. Utilizing a variety of evergreen species results in a more diverse and resilient landscape that is more likely to survive whatever challenges come along. Geographic Adaptability: An E indicates plants suitable primarily to the Eastern half of the state while a W indicates plants that prefer the more arid environment of western Nebraska. All others are considered to be adaptable to most of Nebraska. Size Range: Expected average mature height x spread for Nebraska. Common & Proven Evergreen Trees 1. Arborvitae, Eastern ‐ Thuja occidentalis (E; narrow habit; vertically layered foliage; can be prone to ice storm damage; 20‐25’x 5‐15’; cultivars include ‘Techny’ and ‘Hetz Wintergreen’) 2. Arborvitae, Western ‐ Thuja plicata (E; similar to eastern Arborvitae but not as hardy; 25‐40’x 10‐20; ‘Green Giant’ is a common, fast growing hybrid growing to 60’ tall) 3. Douglasfir (Rocky Mountain) ‐ Pseudotsuga menziesii var. glauca (soft blue‐green needles; cones have distinctive turkey‐foot bract; graceful habit; avoid open sites; 50’x 30’) 4. Fir, Balsam ‐ Abies balsamea (E; narrow habit; balsam fragrance; avoid open, windswept sites; 45’x 20’) 5. Fir, Canaan ‐ Abies balsamea var. phanerolepis (E; similar to balsam fir; common Christmas tree; becoming popular as a landscape tree; very graceful; 45’x 20’) 6. -
Programa Nacional Para La Aplicación De La Normativa Fitosanitaria
PROGRAMA NACIONAL PARA LA APLICACIÓN DE LA NORMATIVA FITOSANITARIA PLAN NACIONAL DE CONTINGENCIA DE Dendrolimus sibiricus Tschetverikov SEPTIEMBRE 2020 SUMARIO DE MODIFICACIONES REVISIÓN FECHA DESCRIPCIÓN OBJETO DE LA REVISIÓN 30/09/2020 Documento base Plan Contingencia Dendrolimus sibiricus 2020 INDICE 1. Introducción y Objetivos 2. Definiciones 3. Marco legislativo, Organización y Estructura de mando 3.1 Marco legislativo 3.2 Marco legislativo, Organización y Estructura 4. Información sobre la enfermedad 4.1 Distribución de la plaga 4.2 Taxonomía 4.3 Daño 4.4 Plantas hospedantes 5. Métodos de identificación y diagnóstico 5.1 Detección de la plaga 5.2 Identificación y diagnóstico 6. Ejecución del Plan Nacional de Contingencia 6.1 Plan de Nacional Contingencia y los planes específicos de acción 6.2 Medidas cautelares a adoptar en caso de sospecha de la presencia de Dendrolimus sibiricus. 6.3 Medidas a adoptar en caso de confirmación de la presencia de Dendrolimus sibiricus. 6.4 Medidas de erradicación. 6.5 Medidas en caso de incumplimiento. 7. Comunicación, Documentación y Formación 7.1. Comunicación externa y campañas de divulgación/sensibilización. 7.2 Consulta a los grupos de interés 7.3. Comunicación interna y documentación 7.4. Pruebas y formación del personal 8. Evaluación y revisión 9. Referencias Anexo 1: PROTOCOLO DE PROSPECCIONES DE Dendrolimus sibiricus Anexo 2: PROGRAMA DE ERRADICACIÓN DE Dendrolimus sibiricus Página 1 de 27 Plan Contingencia Dendrolimus sibiricus 2020 1. Introducción y Objetivos En el presente documento se recogen las medidas que deben adoptarse contra Dendrolimus sibiricus, organismo nocivo regulado, con el objetivo de impedir su aparición, y en caso de que aparezca, actuar con rapidez y eficacia, determinar su distribución y aplicar medidas de erradicación. -
Stand Structure and Dynamics During a 16-Year Period in a Conifer-Hardwood Mixed Forest, Northern Japan
Takahashi et al. 1 Stand structure and dynamics during a 16-year period in a sub-boreal conifer-hardwood mixed forest, northern Japan Koichi Takahashia,1,*, Daisuke Mitsuishia, Shigeru Uemurab, Jun-Ichirou Suzukia,2, Toshihiko Haraa a: The Institute of Low Temperature Science, Hokkaido University, Sapporo 060-0819, Japan b: Forest Research Station, Field Science Center for Northern Biosphere, Hokkaido University, Nayoro 096-0071, Japan Present address 1: Department of Biology, Faculty of Science, Shinshu University, Matsumoto 390-8621, Japan 2: Department of Biology, Faculty of Science, Tokyo Metropolitan University, Tokyo 192-0397, Japan *: All correspondence to K. Takahashi at the above present address#1. Fax: +81.263.37.2560 E-mail: [email protected] This manuscript consists of 23-typed pages including figure legends, 3 tables and 6 figures. Takahashi et al. 2 Abstract The stand structure and regeneration dynamics of trees > 2.0 m in trunk height were studied during 1982–1998 in a 1-ha plot in a sub-boreal conifer-hardwood mixed forest, northern Japan, with a dense dwarf bamboo in the understory. Total density was low in 1982 (651 trees/ha), as compared with other forests in Japan. Quercus crispula was dominant in the upper canopy layer but their saplings were rare, while Acer mono, Acer japonicum and Abies sachalinensis were dominant in the sub-canopy and understory layers with many saplings. Mortality of each species was quite low during the census period (average 0.57%/yr), and there was no clear difference among the four species. The age structure of Quercus crispula was bell-shaped with a peak at ca. -
Rhizopogon Togasawariana Sp. Nov., the First Report of Rhizopogon Associated with an Asian Species of Pseudotsuga
Rhizopogon togasawariana sp. nov., the first report of Rhizopogon associated with an Asian species of Pseudotsuga Mujic, A. B., Hosaka, K., & Spatafora, J. W. (2014). Rhizopogon togasawariana sp. nov., the first report of Rhizopogon associated with an Asian species of Pseudotsuga. Mycologia, 106(1), 105-112. doi:10.3852/13-055 10.3852/13-055 Allen Press Inc. Version of Record http://hdl.handle.net/1957/47245 http://cdss.library.oregonstate.edu/sa-termsofuse Mycologia, 106(1), 2014, pp. 105–112. DOI: 10.3852/13-055 # 2014 by The Mycological Society of America, Lawrence, KS 66044-8897 Rhizopogon togasawariana sp. nov., the first report of Rhizopogon associated with an Asian species of Pseudotsuga Alija B. Mujic1 the natural and anthropogenic range of the family Department of Botany and Plant Pathology, Oregon and plays an important ecological role in the State University, Corvallis, Oregon 97331-2902 establishment and maintenance of forests (Tweig et Kentaro Hosaka al. 2007, Simard 2009). The foundational species Department of Botany, National Museum of Nature concepts for genus Rhizopogon were established in the and Science, Tsukuba-shi, Ibaraki, 305-0005, Japan North American monograph of Smith and Zeller (1966), and a detailed monograph also has been Joseph W. Spatafora produced for European Rhizopogon species (Martı´n Department of Botany and Plant Pathology, Oregon 1996). However, few data on Asian species of State University, Corvallis, Oregon 97331-2902 Rhizopogon have been incorporated into phylogenetic and taxonomic studies and only a limited account of Asian Rhizopogon species has been published for EM Abstract: Rhizopogon subgenus Villosuli are the only associates of Pinus (Hosford and Trappe 1988). -
Biodiversity Conservation in Botanical Gardens
AgroSMART 2019 International scientific and practical conference ``AgroSMART - Smart solutions for agriculture'' Volume 2019 Conference Paper Biodiversity Conservation in Botanical Gardens: The Collection of Pinaceae Representatives in the Greenhouses of Peter the Great Botanical Garden (BIN RAN) E M Arnautova and M A Yaroslavceva Department of Botanical garden, BIN RAN, Saint-Petersburg, Russia Abstract The work researches the role of botanical gardens in biodiversity conservation. It cites the total number of rare and endangered plants in the greenhouse collection of Peter the Great Botanical garden (BIN RAN). The greenhouse collection of Pinaceae representatives has been analysed, provided with a short description of family, genus and certain species, presented in the collection. The article highlights the importance of Pinaceae for various industries, decorative value of plants of this group, the worth of the pinaceous as having environment-improving properties. In Corresponding Author: the greenhouses there are 37 species of Pinaceae, of 7 geni, all species have a E M Arnautova conservation status: CR -- 2 species, EN -- 3 species, VU- 3 species, NT -- 4 species, LC [email protected] -- 25 species. For most species it is indicated what causes depletion. Most often it is Received: 25 October 2019 the destruction of natural habitats, uncontrolled clearance, insect invasion and diseases. Accepted: 15 November 2019 Published: 25 November 2019 Keywords: biodiversity, botanical gardens, collections of tropical and subtropical plants, Pinaceae plants, conservation status Publishing services provided by Knowledge E E M Arnautova and M A Yaroslavceva. This article is distributed under the terms of the Creative Commons 1. Introduction Attribution License, which permits unrestricted use and Nowadays research of biodiversity is believed to be one of the overarching goals for redistribution provided that the original author and source are the modern world. -
Phylogeny and Biogeography of Tsuga (Pinaceae)
Systematic Botany (2008), 33(3): pp. 478–489 © Copyright 2008 by the American Society of Plant Taxonomists Phylogeny and Biogeography of Tsuga (Pinaceae) Inferred from Nuclear Ribosomal ITS and Chloroplast DNA Sequence Data Nathan P. Havill1,6, Christopher S. Campbell2, Thomas F. Vining2,5, Ben LePage3, Randall J. Bayer4, and Michael J. Donoghue1 1Department of Ecology and Evolutionary Biology, Yale University, New Haven, Connecticut 06520-8106 U.S.A 2School of Biology and Ecology, University of Maine, Orono, Maine 04469-5735 U.S.A. 3The Academy of Natural Sciences, 1900 Benjamin Franklin Parkway, Philadelphia, Pennsylvania 19103 U.S.A. 4CSIRO – Division of Plant Industry, Center for Plant Biodiversity Research, GPO 1600, Canberra, ACT 2601 Australia; present address: Department of Biology, University of Memphis, Memphis, Tennesee 38152 U.S.A. 5Present address: Delta Institute of Natural History, 219 Dead River Road, Bowdoin, Maine 04287 U.S.A. 6Author for correspondence ([email protected]) Communicating Editor: Matt Lavin Abstract—Hemlock, Tsuga (Pinaceae), has a disjunct distribution in North America and Asia. To examine the biogeographic history of Tsuga, phylogenetic relationships among multiple accessions of all nine species were inferred using chloroplast DNA sequences and multiple cloned sequences of the nuclear ribosomal ITS region. Analysis of chloroplast and ITS sequences resolve a clade that includes the two western North American species, T. heterophylla and T. mertensiana, and a clade of Asian species within which one of the eastern North American species, T. caroliniana, is nested. The other eastern North American species, T. canadensis, is sister to the Asian clade. Tsuga chinensis from Taiwan did not group with T. -
Ten Years of Provenance Trials and Application of Multivariate Random Forests Predicted the Most Preferable Seed Source for Silv
Article Ten Years of Provenance Trials and Application of Multivariate Random Forests Predicted the Most Preferable Seed Source for Silviculture of Abies sachalinensis in Hokkaido, Japan Ikutaro Tsuyama 1,*, Wataru Ishizuka 2 , Keiko Kitamura 1, Haruhiko Taneda 3 and Susumu Goto 4 1 Hokkaido Research Center, Forestry and Forest Products Research Institute, 7 Hitsujigaoka, Toyohira, Sapporo, Hokkaido 062-8516, Japan; [email protected] 2 Forestry Research Institute, Hokkaido Research Organization, Koushunai, Bibai, Hokkaido 079-0198, Japan; [email protected] 3 Department of Biological Sciences, Graduate School of Science, The University of Tokyo, 7-3-1, Hongo, Bunkyo, Tokyo 113-0033, Japan; [email protected] 4 Education and Research Center, The University of Tokyo Forests, Graduate School of Agricultural and Life Sciences, The University of Tokyo, 1-1-1 Yayoi, Bunkyo-ku, Tokyo 113-8657, Japan; [email protected] * Correspondence: [email protected] Received: 10 August 2020; Accepted: 27 September 2020; Published: 30 September 2020 Abstract: Research highlights: Using 10-year tree height data obtained after planting from the range-wide provenance trials of Abies sachalinensis, we constructed multivariate random forests (MRF), a machine learning algorithm, with climatic variables. The constructed MRF enabled prediction of the optimum seed source to achieve good performance in terms of height growth at every planting site on a fine scale. Background and objectives: Because forest tree species are adapted to the local environment, local seeds are empirically considered as the best sources for planting. However, in some cases, local seed sources show lower performance in height growth than that showed by non-local seed sources. -
ISTA List of Stabilized Plant Names 7Th Edition
ISTA List of Stabilized Plant Names th 7 Edition ISTA Nomenclature Committee Chair: Dr. M. Schori Published by All rights reserved. No part of this publication may be The Internation Seed Testing Association (ISTA) reproduced, stored in any retrieval system or transmitted Zürichstr. 50, CH-8303 Bassersdorf, Switzerland in any form or by any means, electronic, mechanical, photocopying, recording or otherwise, without prior ©2020 International Seed Testing Association (ISTA) permission in writing from ISTA. ISBN 978-3-906549-77-4 ISTA List of Stabilized Plant Names 1st Edition 1966 ISTA Nomenclature Committee Chair: Prof P. A. Linehan 2nd Edition 1983 ISTA Nomenclature Committee Chair: Dr. H. Pirson 3rd Edition 1988 ISTA Nomenclature Committee Chair: Dr. W. A. Brandenburg 4th Edition 2001 ISTA Nomenclature Committee Chair: Dr. J. H. Wiersema 5th Edition 2007 ISTA Nomenclature Committee Chair: Dr. J. H. Wiersema 6th Edition 2013 ISTA Nomenclature Committee Chair: Dr. J. H. Wiersema 7th Edition 2019 ISTA Nomenclature Committee Chair: Dr. M. Schori 2 7th Edition ISTA List of Stabilized Plant Names Content Preface .......................................................................................................................................................... 4 Acknowledgements ....................................................................................................................................... 6 Symbols and Abbreviations .......................................................................................................................... -
Geographical Gradients of Genetic Diversity and Differentiation Among the Southernmost Marginal Populations of Abies Sachalinens
Article Geographical Gradients of Genetic Diversity and Differentiation among the Southernmost Marginal Populations of Abies sachalinensis Revealed by EST-SSR Polymorphism Keiko Kitamura 1, Kentaro Uchiyama 2, Saneyoshi Ueno 2, Wataru Ishizuka 3, Ikutaro Tsuyama 1 and Susumu Goto 4,* 1 Hokkaido Research Center, Forestry and Forest Products Research Institute, 7 Hitsujigaoka, Toyohira, Sapporo, Hokkaido 062-8516, Japan; kitamq@ffpri.affrc.go.jp (K.K.); itsuyama@affrc.go.jp (T.I.) 2 Department of Forest Molecular Genetics and Biotechnology, Forestry and Forest Products Research Institute, 1 Matsunosato, Tsukuba, Ibaraki 305-8687, Japan; [email protected] (U.K.); [email protected] (U.S.) 3 Forestry Research Institute, Hokkaido Research Organization, Koushunai, Bibai, Hokkaido 079-0166, Japan; [email protected] 4 Education and Research Center, The University of Tokyo Forests, Graduate School of Agricultural and Life Sciences, The University of Tokyo, 1-1-1 Yayoi, Bunkyo-ku, Tokyo 113-8657, Japan * Correspondence: [email protected] Received: 17 December 2019; Accepted: 17 February 2020; Published: 20 February 2020 Abstract: Research Highlights: We detected the longitudinal gradients of genetic diversity parameters, such as the number of alleles, effective number of alleles, heterozygosity, and inbreeding coefficient, and found that these might be attributable to climatic conditions, such as temperature and snow depth. Background and Objectives: Genetic diversity among local populations of a plant species at its distributional margin has long been of interest in ecological genetics. Populations at the distribution center grow well in favorable conditions, but those at the range margins are exposed to unfavorable environments, and the environmental conditions at establishment sites might reflect the genetic diversity of local populations. -
Amur Oblast TYNDINSKY 361,900 Sq
AMUR 196 Ⅲ THE RUSSIAN FAR EAST SAKHA Map 5.1 Ust-Nyukzha Amur Oblast TY NDINS KY 361,900 sq. km Lopcha Lapri Ust-Urkima Baikal-Amur Mainline Tynda CHITA !. ZEISKY Kirovsky Kirovsky Zeiskoe Zolotaya Gora Reservoir Takhtamygda Solovyovsk Urkan Urusha !Skovorodino KHABAROVSK Erofei Pavlovich Never SKOVO MAGDAGACHINSKY Tra ns-Siberian Railroad DIRO Taldan Mokhe NSKY Zeya .! Ignashino Ivanovka Dzhalinda Ovsyanka ! Pioner Magdagachi Beketovo Yasny Tolbuzino Yubileiny Tokur Ekimchan Tygda Inzhan Oktyabrskiy Lukachek Zlatoustovsk Koboldo Ushumun Stoiba Ivanovskoe Chernyaevo Sivaki Ogodzha Ust-Tygda Selemdzhinsk Kuznetsovo Byssa Fevralsk KY Kukhterin-Lug NS Mukhino Tu Novorossiika Norsk M DHI Chagoyan Maisky SELE Novovoskresenovka SKY N OV ! Shimanovsk Uglovoe MAZ SHIMA ANOV Novogeorgievka Y Novokievsky Uval SK EN SK Mazanovo Y SVOBODN Chernigovka !. Svobodny Margaritovka e CHINA Kostyukovka inlin SERYSHEVSKY ! Seryshevo Belogorsk ROMNENSKY rMa Bolshaya Sazanka !. Shiroky Log - Amu BELOGORSKY Pridorozhnoe BLAGOVESHCHENSKY Romny Baikal Pozdeevka Berezovka Novotroitskoe IVANOVSKY Ekaterinoslavka Y Cheugda Ivanovka Talakan BRSKY SKY P! O KTYA INSK EI BLAGOVESHCHENSK Tambovka ZavitinskIT BUR ! Bakhirevo ZAV T A M B OVSKY Muravyovka Raichikhinsk ! ! VKONSTANTINO SKY Poyarkovo Progress ARKHARINSKY Konstantinovka Arkhara ! Gribovka M LIKHAI O VSKY ¯ Kundur Innokentevka Leninskoe km A m Trans -Siberianad Railro u 100 r R i v JAO Russian Far East e r By Newell and Zhou / Sources: Ministry of Natural Resources, 2002; ESRI, 2002. Newell, J. 2004. The Russian Far East: A Reference Guide for Conservation and Development. McKinleyville, CA: Daniel & Daniel. 466 pages CHAPTER 5 Amur Oblast Location Amur Oblast, in the upper and middle Amur River basin, is 8,000 km east of Moscow by rail (or 6,500 km by air). -
Formation of Spatial Mosaic of Abies Nephrolepis (Pinaceae) Populations in Korean Pine- Broadleaved Forests in the South of Russian Far East © T
Rastitelnye Resursy. 53(4): 480—495, 2017 FORMATION OF SPATIAL MOSAIC OF ABIES NEPHROLEPIS (PINACEAE) POPULATIONS IN KOREAN PINE- BROADLEAVED FORESTS IN THE SOUTH OF RUSSIAN FAR EAST © T. Ya. Petrenko, *, 1, 2 A. M. Omelko, 1A. A. Zhmerenetsky, 1 O. N. Ukhvatkina,1 L. A. Sibirina1 1 Federal Scientific center of the East Asia terrestrial biodiversity FEB RAS, Vladivostok, Russia 2Far Eastern Federal University, Vladivostok, Russia *E-mail: [email protected] REFERENCES 1. Ricklefs R. E. 1990. Ecology. Heidelberg. 896 p. 2. Hubbel S. P. 2001. The unified neutral theory of biodiversity and biogeography. Princeton. 390 p. 3. Whittaker R. H., Levin S. A. 1977. The role of mosaic phenomena in natural communities. –– Theoret. Pop. Biol. 12: 117–139. 4. Hao Z., Zhang J., Song B., Ye J., Li B. 2007.Vertical structure and spatial associations of dominant tree species in an old-growth temperate forest. –– For. Ecol. Manag. 252: 1–11. 5. Krestov P. V. 2003. Forest vegetation for Easternmost Russia (Russian Far East). –– For. Veg. Northeast Asia. Dordrecht. P. 93–180. 6. Liu Y. Y., Jin G. Z. 2012. Spatial distribution patterns and dynamics of four dominant tree species in a typical mixed broadleaved-Korean pine forest. –– J. Pl. Interact. 9(1): 745–753. 7. Kolesnikov B. P. 1956. Kedrovyye lesa Dalnego Vostoka [Korean pine forest of the Far East]. Moscow. 262 p. (In Russian) 8. Usenko N. V. 1984. Derevya, kustarniki i liany DalnegoVostoka [Trees, shrubs and lianas of the Far East]. Khabarovsk. 272 p. (In Russian) 9. Ishikawa Y., Krestov P. V., Namikawa K. 1999.