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Spatial Distribution and Historical Dynamics of Threatened Conifers of the Dalat Plateau, Vietnam
SPATIAL DISTRIBUTION AND HISTORICAL DYNAMICS OF THREATENED CONIFERS OF THE DALAT PLATEAU, VIETNAM A thesis Presented to The Faculty of the Graduate School At the University of Missouri In Partial Fulfillment Of the Requirements for the Degree Master of Arts By TRANG THI THU TRAN Dr. C. Mark Cowell, Thesis Supervisor MAY 2011 The undersigned, appointed by the dean of the Graduate School, have examined the thesis entitled SPATIAL DISTRIBUTION AND HISTORICAL DYNAMICS OF THREATENED CONIFERS OF THE DALAT PLATEAU, VIETNAM Presented by Trang Thi Thu Tran A candidate for the degree of Master of Arts of Geography And hereby certify that, in their opinion, it is worthy of acceptance. Professor C. Mark Cowell Professor Cuizhen (Susan) Wang Professor Mark Morgan ACKNOWLEDGEMENTS This research project would not have been possible without the support of many people. The author wishes to express gratitude to her supervisor, Prof. Dr. Mark Cowell who was abundantly helpful and offered invaluable assistance, support, and guidance. My heartfelt thanks also go to the members of supervisory committees, Assoc. Prof. Dr. Cuizhen (Susan) Wang and Prof. Mark Morgan without their knowledge and assistance this study would not have been successful. I also wish to thank the staff of the Vietnam Initiatives Group, particularly to Prof. Joseph Hobbs, Prof. Jerry Nelson, and Sang S. Kim for their encouragement and support through the duration of my studies. I also extend thanks to the Conservation Leadership Programme (aka BP Conservation Programme) and Rufford Small Grands for their financial support for the field work. Deepest gratitude is also due to Sub-Institute of Ecology Resources and Environmental Studies (SIERES) of the Institute of Tropical Biology (ITB) Vietnam, particularly to Prof. -
Trees for Alkaline Soil Greg Paige, Arboretum Curator
RESEARCH LABORATORY TECHNICAL REPORT Trees for Alkaline Soil Greg Paige, Arboretum Curator Common name Scientific name Common name Scientific name Amur maple Acer ginnala Norway spruce Picea abies Hedge maple Acer campestre Serbian spruce Picea omorika Norway maple Acer platanoides Lacebark pine Pinus bungeana Paperbark maple Acer griseum Limber pine Pinus flexilis Tatarian maple Acer tatarian London plane tree Platanus x acerifolia European hornbeam Carpinus betulus Callery pear Pyrus calleryana Atlas cedar Cedrus atlantica (use cultivars) Cedar of Lebanon Cedrus libani Shingle oak Quercus imbricaria Deodar cedar Cedrus deodora Bur oak Quercus macrocarpa Hackberry Celtis occidentalis English oak Quercus robur Yellowwood Cladrastis lutea Littleleaf linden Tilia cordata Corneliancherry dogwood Cornus mas Silver linden Tilia tomentosa Cockspur hawthorn Crataegus crus-galli Lacebark elm Ulmus parvifolia Washington hawthorn Crataegus Japanese zelkova Zelkova serrata phaenopyrum Leyland cypress x Cupressocyparis leylandii Hardy rubber tree Eucommia ulmoides Green ash Fraxinus pennsylvanica Founded in 1926, The Bartlett Tree Research Ginkgo Ginkgo biloba Laboratories is the research wing of Bartlett Tree Thornless honeylocust Gleditsia triacanthos ‘inermis’ Experts. Scientists here develop guidelines for all of Kentucky coffeetree Gymnocladus dioicus the Company’s services. The Lab also houses a state- Goldenraintree Koelreuteria of-the-art plant diagnostic clinic and provides vital paniculata technical support to Bartlett arborists and field staff Amur maackia Maackia amurensis for the benefit of our clients. Crabapple Malus spp. Parrotia/Persian ironwood Parrotia persica Amur cork tree Phellodendron amurense Page 1 of 1 . -
Gradient Analysis of Exotic Species in Pinus Radiata Stands of Tenerife (Canary Islands) S
The Open Forest Science Journal, 2009, 2, 63-69 63 Open Access Gradient Analysis of Exotic Species in Pinus radiata Stands of Tenerife (Canary Islands) S. Fernández-Lugo and J.R. Arévalo* Departamento de Ecología, Facultad de Biología, Universidad de La Laguna, La Laguna 38206, Spain Abstract: Identifying the factors that influence the spread of exotic species is essential for evaluating the present and future extent of plant invasions and for the development of eradication programs. We randomly established a network of 250 plots on an exotic Pinus radiata D. Don plantation on Tenerife Island in order to determine if roads and urban centers are favouring the spread of exotic plant species into the forest. We identified four distinct vegetation groups in the P. radiata stands: advanced laurel forest (ALF), undeveloped laurel forest (ULF), ruderal (RU), and Canarian pine stand (CPS). The groups farthest from roads and urban nuclei (ALF and CPS) have the best conserved vegetation, characterizing by the main species of the potential vegetation of the area and almost no exotic and ruderal species. On the other hand, the groups nearest to human infrastructures (ULF and RU) are characterized by species from potential vegetation’s substitution stages and a higher proportion of exotic and ruderal species. The results indicate distance to roads and urban areas are disturbance factors favouring the presence of exotic and ruderal species into the P. radiata plantation. We propose the eradication of some dangerous exotic species, monitoring of the study area in order to detect any intrusion of alien species in the best conserved areas and implementation of management activities to reduce the perturbation of the ULF and RU areas. -
Formation of Pinus Merkusii Growing in Central Thailand
Environment and Natural Resources Journal 2020; 18(3): 234-248 Effects of Climate Variability on the Annual and Intra-annual Ring Formation of Pinus merkusii Growing in Central Thailand Nathsuda Pumijumnong1 and Kritsadapan Palakit2* 1Faculty of Environment and Resource Studies, Mahidol University, Thailand 2Laboratory of Tropical Dendrochronology, Department of Forest Management, Faculty of Forestry, Kasetsart University, Thailand ARTICLE INFO ABSTRACT Received: 5 Aug 2019 The research clarifies which climatic factors induce annual and intra-annual ring Received in revised: 3 Feb 2020 formation in merkus pine (Pinus merkusii) growing in the low lying plains of Accepted: 19 Feb 2020 central Thailand and reconstructs the past climate by using climate modelling Published online: 26 May 2020 derived from climate-growth response. Not only are climate variations longer DOI: 10.32526/ennrj.18.3.2020.22 than a century in central Thailand explained, but the study also explores for the first time the variability in climate using the formation of intra-annual rings in Keywords: Climate reconstruction/ Thai merkus pines. The tree-ring analysis of wood core samples indicated that Dendrochronology/ False ring/ the pine stand was more than 150 years old with the oldest tree being 191 years Merkus pine/ Pinus latteri old. The annual variation in tree growth significantly correlated with local climate variables, the number of rainy days in each year (r=0.520, p<0.01) and *Corresponding author: the extreme maximum temperature in April (r=-0.377, p<0.01). The regional E-mail: [email protected] climate of the Equatorial Southern Oscillation in March (EQ_SOIMarch) also highly correlated with the pine growth (r=0.360, p<0.01). -
Interactions Between Weather-Related Disturbance and Forest Insects and Diseases in the Southern United States
United States Department of Agriculture Interactions Between Weather-Related Disturbance and Forest Insects and Diseases in the Southern United States James T. Vogt, Kamal J.K. Gandhi, Don C. Bragg, Rabiu Olatinwo, and Kier D. Klepzig Forest Service Southern Research Station General Technical Report SRS–255 August 2020 The Authors: James T. Vogt is a Supervisory Biological Scientist, U.S. Department of Agriculture Forest Service, Southern Research Station, 320 E. Green Street, Athens, GA 30602-1530. Kamal J.K. Gandhi is a Professor of Forest Entomology and Director of Southern Pine Health Research Cooperative, University of Georgia, D.B. Warnell School of Forestry and Natural Resources, 180 E. Green Street, Athens, GA 30602-2152. Don C. Bragg is a Project Leader and Research Forester, U.S. Department of Agriculture Forest Service, Southern Research Station, P.O. Box 3516 UAM, Monticello, AR 71656. Rabiu Olatinwo is a Research Pathologist, U.S. Department of Agriculture Forest Service, Southern Research Station, 2500 Shreveport Highway, Pineville, LA 71360-4046. Kier D. Klepzig is a Research Entomologist and the Director of The Jones Center at Ichauway, 3988 Jones Center Drive, Newton, GA 39870. Cover photo: A gap in a longleaf pine woodland created during Hurricane Michael in 2018. Photo by James Guldin, USDA Forest Service, Southern Research Station. Disclaimer Any opinions, findings, conclusions, or recommendations expressed in the material are those of the authors and do not necessarily reflect the policies and views of the U.S. Department of Agriculture Forest Service. The use of trade or firm names in this publication is for reader information and does not imply endorsement by the U.S. -
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. -
Hybridization and Evolution in the Genus Pinus
Hybridization and Evolution in the Genus Pinus Baosheng Wang Department of Ecology and Environmental Science Umeå 2013 Hybridization and Evolution in the Genus Pinus Baosheng Wang Department of Ecology and Environmental Science Umeå University, Umeå, Sweden 2013 This work is protected by the Swedish Copyright Legislation (Act 1960:729) Copyright©Baosheng Wang ISBN: 978-91-7459-702-8 Cover photo: Jian-Feng Mao Printed by: Print&Media Umeå, Sweden 2013 List of Papers This thesis is a summary and discussion of the following papers, which are referred to by their Roman numerals. I. Wang, B. and Wang, X.R. Mitochondrial DNA capture and divergence in Pinus provide new insights into the evolution of the genus. Submitted Manuscript II. Wang, B., Mao, J.F., Gao, J., Zhao, W. and Wang, X.R. 2011. Colonization of the Tibetan Plateau by the homoploid hybrid pine Pinus densata. Molecular Ecology 20: 3796-3811. III. Gao, J., Wang, B., Mao, J.F., Ingvarsson, P., Zeng, Q.Y. and Wang, X.R. 2012. Demography and speciation history of the homoploid hybrid pine Pinus densata on the Tibetan Plateau. Molecular Ecology 21: 4811–4827. IV. Wang, B., Mao, J.F., Zhao, W. and Wang, X.R. 2013. Impact of geography and climate on the genetic differentiation of the subtropical pine Pinus yunnannensis. PLoS One. 8: e67345. doi:10.1371/journal.pone.0067345 V. Wang, B., Mahani, M.K., Ng, W.L., Kusumi, J., Phi, H.H., Inomata, N., Wang, X.R. and Szmidt, A.E. Extremely low nucleotide polymorphism in Pinus krempfii Lecomte, a unique flat needle pine endemic to Vietnam. -
Cedrus Atlantica 'Glauca'
Fact Sheet ST-133 November 1993 Cedrus atlantica ‘Glauca’ Blue Atlas Cedar1 Edward F. Gilman and Dennis G. Watson2 INTRODUCTION A handsome evergreen with blue, bluish-green or light green foliage, ‘Glauca’ Atlas Cedar is perfect for specimen planting where it can grow without being crowded since the tree looks its best when branches are left on the tree to the ground (Fig. 1). This shows off the wonderful irregular, open pyramidal form with lower branches spreading about half the height. It grows rapidly when young, then slowly, reaching 40 to 60 feet tall by 30 to 40 feet wide. The trunk stays fairly straight with lateral branches nearly horizontal. Allow plenty of room for these trees to spread. They are best located as a lawn specimen away from walks, streets, and sidewalks so branches will not have to be pruned. It looks odd if lower branches are removed. Older trees become flat-topped and are a beautiful sight to behold. GENERAL INFORMATION Scientific name: Cedrus atlantica ‘Glauca’ Pronunciation: SEE-drus at-LAN-tih-kuh Common name(s): Blue Atlas Cedar Family: Pinaceae USDA hardiness zones: 6 through 8 (Fig. 2) Origin: not native to North America Uses: Bonsai; specimen Availability: generally available in many areas within Figure 1. Young Blue Atlas Cedar. its hardiness range DESCRIPTION Height: 40 to 60 feet Spread: 25 to 40 feet Crown uniformity: irregular outline or silhouette 1. This document is adapted from Fact Sheet ST-133, a series of the Environmental Horticulture Department, Florida Cooperative Extension Service, Institute of Food and Agricultural Sciences, University of Florida. -
Appendix 4.3 Biological Resources
Appendix 4.3 Biological Resources 4.3.1 Preliminary Tree Survey of APM Alignment (TBD) 4.3.2 Preliminary Tree Survey of Potential Support Facility Sites (TBD) 4.3.3 Tree Inventory Inglewood Transit Connector Project Tree Inventory Prepared for: Meridian Consultants 920 Hampshire Road, Suite A5 Westlake Village, CA 91361 805.367.5720 www.meridianconsultants.com Prepared by: Pax Environmental, Inc. Certified DBE/DVBE/SBE 226 West Ojai Ave., Ste. 101, #157 Ojai, CA 93023 805.633.9218 www.paxenviro.com December 10, 2018 Inglewood Transit Connector Project Section Page Introduction ............................................................................................................. 1 1.1 Project Location ............................................................................................. 1 1.2 Project Description and Background .............................................................. 1 1.3 Regulatory Setting ......................................................................................... 1 Survey Methodology ............................................................................................... 2 Results ..................................................................................................................... 3 References ............................................................................................................... 4 Tables Page 1 Tree species observed in the project alignment .................................................. 3 ATTACHMENTS APPENDIX 1 TREE POINT LOCATION MAP -
Pseudotsuga Menziesii)
120 - PART 1. CONSENSUS DOCUMENTS ON BIOLOGY OF TREES Section 4. Douglas-Fir (Pseudotsuga menziesii) 1. Taxonomy Pseudotsuga menziesii (Mirbel) Franco is generally called Douglas-fir (so spelled to maintain its distinction from true firs, the genus Abies). Pseudotsuga Carrière is in the kingdom Plantae, division Pinophyta (traditionally Coniferophyta), class Pinopsida, order Pinales (conifers), and family Pinaceae. The genus Pseudotsuga is most closely related to Larix (larches), as indicated in particular by cone morphology and nuclear, mitochondrial and chloroplast DNA phylogenies (Silen 1978; Wang et al. 2000); both genera also have non-saccate pollen (Owens et al. 1981, 1994). Based on a molecular clock analysis, Larix and Pseudotsuga are estimated to have diverged more than 65 million years ago in the Late Cretaceous to Paleocene (Wang et al. 2000). The earliest known fossil of Pseudotsuga dates from 32 Mya in the Early Oligocene (Schorn and Thompson 1998). Pseudostuga is generally considered to comprise two species native to North America, the widespread Pseudostuga menziesii and the southwestern California endemic P. macrocarpa (Vasey) Mayr (bigcone Douglas-fir), and in eastern Asia comprises three or fewer endemic species in China (Fu et al. 1999) and another in Japan. The taxonomy within the genus is not yet settled, and more species have been described (Farjon 1990). All reported taxa except P. menziesii have a karyotype of 2n = 24, the usual diploid number of chromosomes in Pinaceae, whereas the P. menziesii karyotype is unique with 2n = 26. The two North American species are vegetatively rather similar, but differ markedly in the size of their seeds and seed cones, the latter 4-10 cm long for P. -
Town of Walden Zoning Ordinance
Town of Walden Zoning Ordinance Updated November 2020 2 Table of Contents Article 1. General Provisions, Rules and Definitions ................................................................ 2 1.01 General Purpose. ........................................................................................................... 2 1.02 Reference Title of Ordinance ......................................................................................... 2 1.03 Uses Restricted. ............................................................................................................. 2 1.04 Amplification of Regulations. .......................................................................................... 2 1.05 Private Restrictions. ....................................................................................................... 2 1.06 Construction of Language. ............................................................................................. 3 1.07 Specific Definitions. ....................................................................................................... 3 Article 2. Establishing Zones, Boundaries and Uses of Property ......................................... 10 2.01 Divisions into Zones. .................................................................................................... 10 2.02 The Zoning Map. .......................................................................................................... 10 2.03 Measurement of Boundaries. ...................................................................................... -
Coexistent Heteroblastic Needles of Adult Pinus Canariensis C.Sm
Article Coexistent Heteroblastic Needles of Adult Pinus canariensis C.Sm. ex DC. in Buch Trees Differ Structurally and Physiologically Beatriz Fernández-Marín 1,* , Marcos Adrián Ruiz-Medina 1, José Carlos Miranda 2 and Águeda María González-Rodríguez 1 1 Department of Botany, Ecology and Plant Physiology, University of La Laguna (ULL), 38202 Tenerife, Spain; [email protected] (M.A.R.-M.); [email protected] (Á.M.G.-R.) 2 Swiss Federal Institute for Forest Snow and Landscape Research WSL, 8903 Birmensdorf, Switzerland; [email protected] * Correspondence: [email protected] Abstract: Great variation in shape and size between primary (juvenile) and secondary (adult) needles, so-called leaf-heteroblasty, occurs in several Pinus species. Most of them loss primary needles during the juvenile-to-adult transition of the tree. An exception to this is Pinus canariensis (a Canary Islands endemism) in which basal resprouting twigs of adult trees frequently wear both primary and secondary needles. Taking advantage of this extraordinary study-case-species, we conducted an exhaustive comparison of both needle types through quantitative analyses of needle anatomy, photochemical performance, gas exchange, and resistance to extreme dehydration and to extreme needle temperature. We hypothesized that primary needles would show lower investment to leaf structure but higher photosynthetical efficiency. Primary needles had less stomatal density and thicker and less wettable cuticles. In cross section, primary needles showed smaller structural fraction (e.g., percent of hypodermis, endodermis and vascular tissue) and higher fraction of photosynthetic Citation: Fernández-Marín, B.; parenchyma. Significant differences between primary and secondary needles were not found in Ruiz-Medina, M.A.; Miranda, J.C.; net carbon assimilation not in their leaf mass area values.