The Convention on Biological Diversity Plant Conservation Report a Review of Progress in Implementing the Global Strategy for Plant Conservation (GSPC) Foreword
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Vietnamese Conifers and Some Problems of Their Sustainable Utilization Ke Loc Et Al
Vietnamese conifers and some problems of their sustainable utilization Ke Loc et al. Vietnamese conifers and some problems of their sustainable utilization Phan Ke Loc 1, 2, Nguyen Tien Hiep 2, Nguyen Duc To Luu 3, Philip Ian Thomas 4, Aljos Farjon 5, L.V. Averyanov 6, J.C. Regalado, Jr. 7, Nguyen Sinh Khang 2, Georgina Magin 8, Paul Mathew 8, Sara Oldfield 9, Sheelagh O’Reilly 8, Thomas Osborn 10, Steven Swan 8 and To Van Thao 2 1 University of Natural Science, Vietnam National University, Hanoi; 2 Institute of Ecology and Biological Resources; 3 Vietnam Central Forest Seed Company; 4 Royal Botanic Garden Edinburgh; 5 Royal Botanic Gardens, Kew; 6 Komarov Botanical Institute; 7 Missouri Botanical Garden; 8 Fauna & Flora International; 9 Global Trees Campaign; 10 Independent Consultant Introduction Vietnam is now recognized as one of the top ten global conifer conservation ‘hotspots’, as defined by the Conifer Specialist Group of the World Conservation Union (IUCN). Vietnam’s conifer flora has approximately 34 species that are indigenous to the country, making up about 5% of conifers known worldwide. Although conifers represent only less than 0.3% of the total number of higher vascular plant species of Vietnam, they are of great ecological, cultural and economic importance. Most conifer wood is prized for its high value in house construction, furniture making, etc. The decline of conifer populations in Vietnam has caused serious concern among scientists. Threats to conifer species are substantial and varied, ranging from logging (both commercial and subsistence), land clearing for agriculture, and forest fire. Over the past twelve years (1995-2006), Vietnam Botanical Conservation Program (VBCP), a scientific cooperation between the Missouri Botanical Garden in Saint Louis and the Institute of Ecology and Biological Resources in Hanoi, has conducted various studies on this important group of plants in order to gather baseline information necessary to make sound recommendations for their conservation and sustainable use. -
Macroscopic and Microscopic Features of Diagnostic Value for Warburgia Ugandensis Sprague Leaf and Stem-Bark Herbal Materials
Vol. 12(2), pp. 36-43, April-June 2020 DOI: 10.5897/JPP2019.0569 Article Number: 488269963479 ISSN: 2141-2502 Copyright©2020 Author(s) retain the copyright of this article Journal of Pharmacognosy and Phytotherapy http://www.academicjournals.org/JPP Full Length Research Paper Macroscopic and microscopic features of diagnostic value for Warburgia ugandensis Sprague leaf and stem-bark herbal materials Onyambu Meshack Ondora1*, Nicholas K. Gikonyo1, Hudson N. Nyambaka2 and Grace N.Thoithi3 1 Department of Pharmacognosy and Pharmaceutical Chemistry, School of Pharmacy, Kenyatta University, P.O Box 43844-0100 Nairobi, Kenya 2 Department of Chemistry, School of Pure and Applied Sciences, Kenyatta University, P.O Box 43844-0100 Nairobi, Kenya 3Department of Pharmaceutical Chemistry, School of Pharmacy, University of Nairobi, P.O. Box 19676-00202 Nairobi, Kenya Received 28 December 2019, Accepted 2 April 2020 Warbugia ugandensis is among the ten most utilized medicinal plants in East Africa. Stem-bark and leaves are used as remedies for malaria, stomachache, coughs and several skin diseases. Consequently, the plant is endangered because of uncontrolled harvest from the wild and lack of domestication. There is therefore fear of poor quality commercialized products due to lack of quality control mechanisms. The objective of this study was to investigate features of diagnostic value that could be used to confirm its authenticity and purity. Samples in the study were obtained from six different geographical locations in Kenya by random purposive sampling. Macroscopic and microscopic studies of the leaf and stem-bark were done based on a modified method from the American herbal pharmacopoeia. The study revealed over five macroscopic and organoleptic characteristics for W. -
Integrated Conservation of Tree Species by Botanic Gardens: a Reference Manual Integrated Conservation of Tree Species by Botanic Gardens: a Reference Manual
Integrated conservation of tree species by botanic gardens: a reference manual Integrated conservation of tree species by botanic gardens: a reference manual Compiled by: Sara Oldfield and Adrian C. Newton November 2012 Acknowledgements Many individUals have generoUsly contribUted their time to the preparation of this manUal and are acknowledged with gratitUde. Andrea Kramer provided sUbstantial Recommended citation: comments on an early draft and helped to shape the Oldfield, S. and Newton, A.C. 2012. strUctUre and content of the manUal greatly enhancing Integrated conservation of tree species by the final docUment. Larry Stritch critically reviewed the botanic gardens: a reference manUal. final draft and provided valUable improvements to the Botanic Gardens Conservation International, text. Ildiko Whitton provided assistance with research Richmond, United Kingdom throUghoUt the preparation of the manUal and prepared case stUdies as noted in the text. GratefUl thanks are ISBN-10: 1-905164-44-0 also dUe to Bart C. O’Brien, Joachim Gratzfeld, Dan ISBN-13: 978-1-905164-44-8 LUscombe, Megan Marrison, Matt Parratt, Lorraine Perrins, Simon Marshall and Mark Nicholson for the Cover image: provision of expert case stUdies. Thank yoU also to Barney Wilczak/Wilczak Photography.co.Uk Professor Patricio Arce, Corey Barnes, Lillian ChUa, Allen Coombes, Tonya Lander, Dr Philip Moors, Maricela Design: RodrigUez Acosta and Xiangying Wen. We acknowledge Seascape. www.seascapedesign.co.Uk the major contribUtion of Professor Zeng Qingwen to the conservation of Magnolia spp. Zeng Qingwen Published by prepared the case stUdy on p 35. He died in the field Botanic Gardens Conservation International whilst collecting Magnolia specimens in 2012 and will Descanso HoUse, 199 Kew Road, Richmond, be remembered by the international botanical SUrrey, TW9 3BW, United Kingdom commUnity for his skills, enthUsiasm and willingness © BGCI 2012 to share information. -
Insecticidal and Antifeedant Activities of Malagasy Medicinal Plant (Cinnamosma Sp.) Extracts and Drimane-Type Sesquiterpenes Against Aedes Aegypti Mosquitoes
Insecticidal and antifeedant activities of Malagasy medicinal plant (Cinnamosma sp.) extracts and drimane-type sesquiterpenes against Aedes aegypti mosquitoes Thesis Presented in Partial Fulfillment of the Requirements for the Degree Master of Science in the Graduate School of The Ohio State University By Edna Ariel Alfaro Inocente, B.S. Graduate Program in Entomology The Ohio State University 2020 Thesis Committee Dr. Peter M. Piermarini, Advisor Dr. Reed M. Johnson Dr. Liva H. Rakotondraibe Copyrighted by Edna Ariel Alfaro Inocente 2020 2 Abstract Nearly everyone has been bitten at least once by a mosquito and recognizes how annoying this can be. But mosquito bites are nothing compared to the number of people that have died from and continue to be at risk of contracting arboviruses transmitted by these deadly insects. Female Aedes aegypti mosquitoes are the primary vector of the viruses that cause yellow fever, dengue fever, chikungunya fever, and Zika virus in humans. Climate change and globalization have facilitated the spread of these mosquitoes and associated arboviruses, generating new outbreaks and increasing disease risk in the United States. Effective vaccines or medical treatments for most mosquito-borne arboviruses are not available and thereby the most common strategy to control viral transmission is to manage mosquito populations with chemical pesticides and prevent mosquito-human interactions with chemical repellents. Although the use of neurotoxic chemicals, such as organophosphates and pyrethroids, can be very efficient at killing mosquitoes, the limited modes of action of these compounds has strongly selected for individuals that are resistant. Likewise, the chemical arsenal for mosquito repellents is limited. -
Full-Text (PDF)
Vol. 12(27), pp. 448-455, 10 November, 2018 DOI: 10.5897/JMPR2018.6626 Article Number: 3A867A858915 ISSN: 1996-0875 Copyright ©2018 Author(s) retain the copyright of this article Journal of Medicinal Plants Research http://www.academicjournals.org/JMPR Review A review on the botanical aspects, phytochemical contents and pharmacological activities of Warburgia ugandensis Denis Okello1, 2, 4, Richard Komakech1, 5, Motlalepula Gilbert Matsabisa3 and Youngmin Kang1, 4* 1Korean Medicine Life Science Major, University of Science and Technology (UST), Republic of Korea. 2Gombe Secondary School, P. O. Box, 192, Butambala/Mpigi, Uganda, East Africa. 3Department of Pharmacology Faculty of Health Sciences University of Free State, Bloemfontein, 9300 South Africa. 4Herbal Medicine Research Division, Korea Institute of Oriental Medicine (KIOM), Yuseongdae-ro, Yuseong-gu, Daejeon 34054, Republic of Korea. 5Natural Chemotherapeutics Research Institute, Ministry of Health, Kampala, Uganda. Received 15 June, 2018; Accepted 9 August, 2018 Warburgia ugandensis Sprague (Family Canellacea) commonly known as Ugandan greenheart or pepper bark tree, is a highly valued medicinal plant in traditional medicine with a broad spectrum of antimicrobial activity whose parts especially the leaves and stem bark have for long been used in the treatment and management of many diseases and health conditions such as stomachache, cough, toothache, fever, malaria, oral thrush, measles and diarrhea in African communities where the plant occurs. This review focused on the phytochemical contents, medicinal uses and antimicrobial activities of W. ugandensis based on published peer reviewed articles. This review established that the high therapeutic value of W. ugandensis is attributed to the abundance of drimane sesquiterpenes in its stem bark and leaves. -
Malik Index Plantarum 2011
Malik Index Plantarum 2011 Listed about 4500 conifer cultivars in the Malík Gardens with 3050 photos. Gardenweb Galleries 2011 San Sebastian Broom Gem San Sebastian Broom World San Sebastian Broom World 2 San Sebastian Broom World 3 San Sebastian Broom World 4 San Sebastian Broom World 5 San Sebastian Broom World 6 San Sebastian Broom World 7 San Sebastian Broom World 8 San Sebastian Broom World 9 San Sebastian Broom World 10 San Sebastian Broom World 11 San Sebastian Broom World 12 Krejci Gardens 1 San Sebastian Broom World 13 Krejci Gardens 2 San Sebastian Broom World 14 Krejci Gardens 3 San Sebastian Broom World 15 The Simanek Family San Sebastian Broom World 16 Malik Collection Broom University Broom Universe 2 Broom Universe 3 Broom Universe 4 Valenta Gardens CZ Broom Universe 5 Malik Gardens CZ Broom Universe 6 Malik Gardens CZ Broom Universe 7 - Conifer Meeting at Malik Gardens CZ Broom Universe 8 Krejci Gardens CZ Broom Universe 9 The Pinus cembra Saga 1 Broom Universe 10 The Pinus cembra Saga 2 Broom Universe 11 The Pinus cembra Saga 3 Broom Universe 12 The Pinus cembra Saga 4 Broom Universe 13 The Pinus cembra Saga 5 Broom Universe 14 The Pinus cembra Saga 6 Broom Universe 15 The Pinus cembra Saga 7 Broom Universe 16 The Pinus cembra Saga 8 Broom Universe 17 Czech finds in the States Broom Universe 18 Doug brooms Broom Universe 19 Pinus leucodermis brooms Broom Universe 20 Doug brooms 2 Broom Universe 21 Doug brooms 3 Broom Universe 22 Fir brooms Broom Universe 23 The Pinus cembra Saga 9 Broom Universe 24 The Pinus cembra Saga -
Intercontinental Long-Distance Dispersal of Canellaceae from the New to the Old World Revealed by a Nuclear Single Copy Gene and Chloroplast Loci
Molecular Phylogenetics and Evolution 84 (2015) 205–219 Contents lists available at ScienceDirect Molecular Phylogenetics and Evolution journal homepage: www.elsevier.com/locate/ympev Intercontinental long-distance dispersal of Canellaceae from the New to the Old World revealed by a nuclear single copy gene and chloroplast loci Sebastian Müller a,1, Karsten Salomo a,1, Jackeline Salazar b, Julia Naumann a, M. Alejandra Jaramillo c, ⇑ Christoph Neinhuis a, Taylor S. Feild d,2, Stefan Wanke a, ,2 a Technische Universität Dresden, Institut für Botanik, Zellescher Weg 20b, 01062 Dresden, Germany b Escuela de Biología, Universidad Autónoma de Santo Domingo (UASD), C/Bartolomé Mitre, Santo Domingo, Dominican Republic c Centro de Investigación para el Manejo Ambiental y el Desarrollo, Cali, Colombia d Centre for Tropical Biodiversity and Climate Change, College of Marine and Environmental Science, Townsville 4810, Campus Townsville, Australia article info abstract Article history: Canellales, a clade consisting of Winteraceae and Canellaceae, represent the smallest order of magnoliid Received 10 July 2014 angiosperms. The clade shows a broad distribution throughout the Southern Hemisphere, across a diverse Revised 16 December 2014 range of dry to wet tropical forests. In contrast to their sister-group, Winteraceae, the phylogenetic rela- Accepted 17 December 2014 tions and biogeography within Canellaceae remain poorly studied. Here we present the phylogenetic Available online 9 January 2015 relationships of all currently recognized genera of Canellales with a special focus on the Old World Canellaceae using a combined dataset consisting of the chloroplast trnK-matK-trnK-psbA and the nuclear Keywords: single copy gene mag1 (Maigo 1). Within Canellaceae we found high statistical support for the mono- Canellales phyly of Warburgia and Cinnamosma. -
Aspects of Seed Propagation of Commonly Utilised
ASPECTS OF SEED PROPAGATION OF COMMONLY UTILISED MEDICINAL TREES OF KWAZULU-NATAL by Thiambi Reuben Netshiluvhi Submitted in partial fulfilment of the requirements for the degree of Master of Science in the Department of Biology, University of Natal, Durban 1996 11 DECLARATION The experimental work described in this thesis was carried out in the Department of Biological Sciences, University of Natal, Durban, from January 1995 to November 1996, under the supervision of Professor Norman W. Pammenter and Professor John A. Cooke. These studies represent original work by the author and have not been submitted in any form to another University. Where use was made of the work of others it has been duly acknowledged in the text. T.R. Netshiluvhi December, 1996 III ACKNOWLEDGEMENTS I owe special gratitude to my supervisor Professor Norman W. Pammenter and co supervisor Professor John .A. Cooke for their excellent supervision and guidance. I also thank them for proof-reading my write-up. My special thanks go to Geoff Nichols, Keith Cooper and Rob Scott-Shaw for being so kind and resourceful pertaining to seeds of indigenous medicinal trees. I am compelled to thank Geoff Nichols once more for passing on some of his precious knowledge about seeds of indigenous medicinal trees. D. Pillay, M. Pillay, A. Naidoo and R. Padayachee for their general information about seeds of indigenous plants and the media used for germination. A traditional doctor at Isipingo informal herbal market, A.T. Fernandoh, organised gatherers and traders to be interviewed about the demand for herbal medicine. Finally, I would like to thank the Foundation for Research Development (FRD) for financial assistance they offered for a period of2 years ofthis study. -
Nootkatensis, Secondary Metabolites, Biological Activities, and Chemical Ecology
Journal of Chemical Ecology (2018) 44:510–524 https://doi.org/10.1007/s10886-018-0956-y REVIEW ARTICLE Yellow-Cedar, Callitropsis (Chamaecyparis) nootkatensis, Secondary Metabolites, Biological Activities, and Chemical Ecology Joseph J. Karchesy1 & Rick G. Kelsey2 & M. P. González-Hernández3 Received: 22 December 2017 /Revised: 26 March 2018 /Accepted: 28 March 2018 /Published online: 14 April 2018 # This is a U.S. government work and its text is not subject to copyright protection in the United States; however, its text may be subject to foreign copyright protection 2018 Abstract Yellow-cedar, Callitropsis nootkatensis, is prevalent in coastal forests of southeast Alaska, western Canada, and inland forests along the Cascades to northern California, USA. These trees have few microbial or animal pests, attributable in part to the distinct groups of biologically active secondary metabolites their tissues store for chemical defense. Here we summarize the new yellow-cedar compounds identified and their biological activities, plus new or expanded activities for tissues, extracts, essential oils and previously known compounds since the last review more than 40 years ago. Monoterpene hydrocarbons are the most abundant compounds in foliage, while heartwood contains substantial quantities of oxygenated monoterpenes and oxygenated sesquiterpenes, with one or more tropolones. Diterpenes occur in foliage and bark, whereas condensed tannins have been isolated from inner bark. Biological activities expressed by one or more compounds in these groups include fungicide, bactericide, sporicide, acaricide, insecticide, general cytotoxicity, antioxidant and human anticancer. The diversity of organisms impacted by whole tissues, essential oils, extracts, or individual compounds now encompasses ticks, fleas, termites, ants, mos- quitoes, bacteria, a water mold, fungi and browsing animals. -
Masterarbeit
View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by OTHES MASTERARBEIT Titel der Masterarbeit „Biotransformation and utilization of drimane sesquiterpenes by endophytic microorganisms“ Verfasserin ODER Verfasser Saronjic Nermina BSc angestrebter akademischer Grad Master of Science (MSc) Wien, 2012 Studienkennzahl lt. Studienblatt: A 066 833 Studienrichtung lt. Studienblatt: Masterstudium Ökologie Betreuerin / Betreuer: Ao. Univ. - Prof. Dr. Hadacek Franz TABLE OF CONTENTS I GENERAL INTRODUCTION ..................................................................................................1 1. Pepper bark tree (Warburgia ugandensis ) ..........................................................................2 2. Drimane sesquiterpenes .......................................................................................................4 3. Farnesol ................................................................................................................................6 4. Endophytes ...........................................................................................................................8 5. Biotransformation ..............................................................................................................10 6. References .........................................................................................................................12 II BIOTRANSFORMATION AND UTILIZATION OF DRIMANE SESQUITERPENES BY ENDOPHYTIC MICROORGANISMS .............................................................................20 -
Abies Koreana Abies
Conifers for Urban & Community Forests: The Good, the Bad, and the Underused Bert Cregg, Ph.D. Michigan State University Department of Horticulture & Department of Forestry John Ruter, Ph.D. University of Georgia Department of Horticulture Why conifers? • Year-round interest – Evergreen – Bark – Cones • Botanically interesting • Often low maintenance • Add unique form, texture, color to landscape Why conifers? • Variety of design functions – Specimens – Contrast elements – Borders – Mass as background • Increased interest in dwarf and unusual forms Understanding Conifers What is a conifer ? What is a conifer ? • Conifer - Latin for ‘cone bearing’ • Male and female strobili rather than flowers • Wind pollinated • Some have fleshy cones • Leaved needle-like or scale like • Mostly evergreen Ornamental conifer nurseries typically list conifers based on American Conifer Society specifications • Size class • Form class Conifer sizes Miniature <1” per year Conifer sizes Dwarf 1-6” per year Conifer sizes Intermediate 6”-12”per year Conifer sizes Large >1’ per year Conifer forms • Globose: globe-like or rounded in general outline. Conifer forms • Pendulous: upright or mounding with varying degrees of weeping branches. Conifer forms • Narrow upright: much taller than broad; includes plants referred to as fastigiate, columnar, narrowly pyramidal or narrowly conical. • Conifer forms • Prostrate: ground- hugging, carpeting plants without an inclination to grow upward. Conifer forms • Broad upright: includes all other upright plants with do not fit into categories 1-3. Conifer forms • Spreading: wider than tall. Conifer forms • Irregular: erratic growth pattern. Conifer forms • Culturally altered: pruned or trained into formal or imaginative shapes, such as high grafts or standards. Conifer forms • Culturally altered: pruned or trained into formal or imaginative shapes, such as high grafts or standards. -
Polly Hill Arboretum Plant Collection Inventory March 14, 2011 *See
Polly Hill Arboretum Plant Collection Inventory March 14, 2011 Accession # Name COMMON_NAME Received As Location* Source 2006-21*C Abies concolor White Fir Plant LMB WEST Fragosa Landscape 93-017*A Abies concolor White Fir Seedling ARB-CTR Wavecrest Nursery 93-017*C Abies concolor White Fir Seedling WFW,N1/2 Wavecrest Nursery 2003-135*A Abies fargesii Farges Fir Plant N Morris Arboretum 92-023-02*B Abies firma Japanese Fir Seed CR5 American Conifer Soc. 82-097*A Abies holophylla Manchurian Fir Seedling NORTHFLDW Morris Arboretum 73-095*A Abies koreana Korean Fir Plant CR4 US Dept. of Agriculture 73-095*B Abies koreana Korean Fir Plant ARB-W US Dept. of Agriculture 97-020*A Abies koreana Korean Fir Rooted Cutting CR2 Jane Platt 2004-289*A Abies koreana 'Silberlocke' Korean Fir Plant CR1 Maggie Sibert 59-040-01*A Abies lasiocarpa 'Martha's Vineyard' Arizona Fir Seed ARB-E Longwood Gardens 59-040-01*B Abies lasiocarpa 'Martha's Vineyard' Arizona Fir Seed WFN,S.SIDE Longwood Gardens 64-024*E Abies lasiocarpa var. arizonica Subalpine Fir Seedling NORTHFLDE C. E. Heit 2006-275*A Abies mariesii Maries Fir Seedling LNNE6 Morris Arboretum 2004-226*A Abies nephrolepis Khingan Fir Plant CR4 Morris Arboretum 2009-34*B Abies nordmanniana Nordmann Fir Plant LNNE8 Morris Arboretum 62-019*A Abies nordmanniana Nordmann Fir Graft CR3 Hess Nursery 62-019*B Abies nordmanniana Nordmann Fir Graft ARB-CTR Hess Nursery 62-019*C Abies nordmanniana Nordmann Fir Graft CR3 Hess Nursery 62-028*A Abies nordmanniana Nordmann Fir Plant ARB-W Critchfield Tree Fm 95-029*A Abies nordmanniana Nordmann Fir Seedling NORTHFLDN Polly Hill Arboretum 86-046*A Abies nordmanniana ssp.