Notes on the Cupressaceae in Vietnam
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Non-Wood Forest Products from Conifers
Page 1 of 8 NON -WOOD FOREST PRODUCTS 12 Non-Wood Forest Products From Conifers FAO - Food and Agriculture Organization of the United Nations The designations employed and the presentation of material in this publication do not imply the expression of any opinion whatsoever on the part of the Food and Agriculture Organization of the United Nations concerning the legal status of any country, territory, city or area or of its authorities, or concerning the delimitation of its frontiers or boundaries. M-37 ISBN 92-5-104212-8 (c) FAO 1995 TABLE OF CONTENTS FOREWORD ACKNOWLEDGMENTS ABBREVIATIONS INTRODUCTION CHAPTER 1 - AN OVERVIEW OF THE CONIFERS WHAT ARE CONIFERS? DISTRIBUTION AND ABUNDANCE USES CHAPTER 2 - CONIFERS IN HUMAN CULTURE FOLKLORE AND MYTHOLOGY RELIGION POLITICAL SYMBOLS ART CHAPTER 3 - WHOLE TREES LANDSCAPE AND ORNAMENTAL TREES Page 2 of 8 Historical aspects Benefits Species Uses Foliage effect Specimen and character trees Shelter, screening and backcloth plantings Hedges CHRISTMAS TREES Historical aspects Species Abies spp Picea spp Pinus spp Pseudotsuga menziesii Other species Production and trade BONSAI Historical aspects Bonsai as an art form Bonsai cultivation Species Current status TOPIARY CONIFERS AS HOUSE PLANTS CHAPTER 4 - FOLIAGE EVERGREEN BOUGHS Uses Species Harvesting, management and trade PINE NEEDLES Mulch Decorative baskets OTHER USES OF CONIFER FOLIAGE CHAPTER 5 - BARK AND ROOTS TRADITIONAL USES Inner bark as food Medicinal uses Natural dyes Other uses TAXOL Description and uses Harvesting methods Alternative -
Morphology and Morphogenesis of the Seed Cones of the Cupressaceae - Part II Cupressoideae
1 2 Bull. CCP 4 (2): 51-78. (10.2015) A. Jagel & V.M. Dörken Morphology and morphogenesis of the seed cones of the Cupressaceae - part II Cupressoideae Summary The cone morphology of the Cupressoideae genera Calocedrus, Thuja, Thujopsis, Chamaecyparis, Fokienia, Platycladus, Microbiota, Tetraclinis, Cupressus and Juniperus are presented in young stages, at pollination time as well as at maturity. Typical cone diagrams were drawn for each genus. In contrast to the taxodiaceous Cupressaceae, in Cupressoideae outgrowths of the seed-scale do not exist; the seed scale is completely reduced to the ovules, inserted in the axil of the cone scale. The cone scale represents the bract scale and is not a bract- /seed scale complex as is often postulated. Especially within the strongly derived groups of the Cupressoideae an increased number of ovules and the appearance of more than one row of ovules occurs. The ovules in a row develop centripetally. Each row represents one of ascending accessory shoots. Within a cone the ovules develop from proximal to distal. Within the Cupressoideae a distinct tendency can be observed shifting the fertile zone in distal parts of the cone by reducing sterile elements. In some of the most derived taxa the ovules are no longer (only) inserted axillary, but (additionally) terminal at the end of the cone axis or they alternate to the terminal cone scales (Microbiota, Tetraclinis, Juniperus). Such non-axillary ovules could be regarded as derived from axillary ones (Microbiota) or they develop directly from the apical meristem and represent elements of a terminal short-shoot (Tetraclinis, Juniperus). -
Cupressus Torulosa Is a Good Substitute of Two Selected Juniperus Species for Aroma Potentials Hema Lohani, Nirpendra Kumar Chauhan and Harish Ch
Arom & at al ic in P l ic a n d t Lohani et al., Med Aromat Plants 2013, 2:2 e s M Medicinal & Aromatic Plants DOI: 0.4172/2167-0412.1000122 ISSN: 2167-0412 ResearchLetter Article OpenOpen Access Access Cupressus torulosa is a Good Substitute of Two Selected Juniperus Species for Aroma Potentials Hema Lohani, Nirpendra Kumar Chauhan and Harish Ch. Andola* Centre for Aromatic Plants (CAP) Industrial Estate, Selaqui-248197,Dehradun (Uttarakhand), India Essential oils which are complex mixture of terpenoids and other survival of the Juniperus species at a risk in nature due to continuous class of components isolated from different plant parts of aromatic plants, exploration in for preparation of tradition incenses and material for find impotent place in industry due to extensive uses in food, flavour, essential oil extraction etc. essential oil analysis of the needles and fragrances and pharmaceutical industry, More than 250 different type of berry of Juniperus species i.e. J. communis, contain monoterpene essential oil worth US$ 1.2 billion per annum are traded in the globe [1] hydrocarbons (76.2-81.4%). Major components such as α-pinene A number of countries produced different kind of essential oils. India (31.8-49.5%) and limonene (13.7-19.5%) δ-3-carene (9.7%- 14.7%) ranks second in world trade due to wide application in cosmetic, food, sabinene (0.8-6.7%), β-myrcene (2.4-5.6%), β-pinene (2.1-4.3%) and and pharmaceutical, therapeutically these used as antiseptic, stimulant, α-terpinyl acetate (1.7-2.9%). -
IUCN Red List of Threatened Species™ to Identify the Level of Threat to Plants
Ex-Situ Conservation at Scott Arboretum Public gardens and arboreta are more than just pretty places. They serve as an insurance policy for the future through their well managed ex situ collections. Ex situ conservation focuses on safeguarding species by keeping them in places such as seed banks or living collections. In situ means "on site", so in situ conservation is the conservation of species diversity within normal and natural habitats and ecosystems. The Scott Arboretum is a member of Botanical Gardens Conservation International (BGCI), which works with botanic gardens around the world and other conservation partners to secure plant diversity for the benefit of people and the planet. The aim of BGCI is to ensure that threatened species are secure in botanic garden collections as an insurance policy against loss in the wild. Their work encompasses supporting botanic garden development where this is needed and addressing capacity building needs. They support ex situ conservation for priority species, with a focus on linking ex situ conservation with species conservation in natural habitats and they work with botanic gardens on the development and implementation of habitat restoration and education projects. BGCI uses the IUCN Red List of Threatened Species™ to identify the level of threat to plants. In-depth analyses of the data contained in the IUCN, the International Union for Conservation of Nature, Red List are published periodically (usually at least once every four years). The results from the analysis of the data contained in the 2008 update of the IUCN Red List are published in The 2008 Review of the IUCN Red List of Threatened Species; see www.iucn.org/redlist for further details. -
The Baker's Cypress
AMERICAN CONIFER SOCIETY coniferVOLUME 33, NUMBER 2 | SPRING 2016 QUARTERLY ENCOUNTERS WITH The Baker’s Cypress PAGE 18 SAVE THE DATE • 2016 SOUTHEAST REGION MEETING • AUGUST 26–28 • WAYNESBORO, VA TABLE O F CONTENTS 16 05 18 12 Welcome to the new ConiferQuarterly ACS Seed Exchange and How I Became By Ron Elardo 04 16 a Coniferite By Jim Brackman What Do Conifer Enthusiasts Need to Encounters with The Baker’s Cypress Know About Mycorrhizae? 05 18 By David Pilz By Bert Cregg, Ph.D. Comments on Conifers for Open Forum: Southeast Region ACS Part 1 09 22 Reference Gardens By Bob Fincham 2016 Southeast Region Meeting ACS Directorate By Jeff Harvey 12 23 Shady Characters: Conifers and Plants Made For Shade 14 By Rich and Susan Eyre Spring 2016 Volume 33, Number 2 ConiferQuarterly (ISSN 8755-0490) is published quarterly by the American Conifer Society. The Society is a non- Conifer profit organization incorporated under the laws of the Commonwealth of Pennsylvania and is tax exempt under Quarterly section 501(c)3 of the Internal Revenue Service Code. You are invited to join our Society. Please address Editor membership and other inquiries to the American Conifer Ronald J. Elardo Society National Office, PO Box 1583, Minneapolis, MN 55311, [email protected]. Membership: US & Canada $38, International $58 (indiv.), $30 (institutional), $50 Technical Editors (sustaining), $100 (corporate business) and $130 (patron). Steven Courtney If you are moving, please notify the National Office 4 weeks Robert Fincham in advance. Ethan Johnson David Olszyk All editorial and advertising matters should be sent to: Ron Elardo, 5749 Hunter Ct., Adrian, MI 49221-2471, (517) 902-7230 or email [email protected] Advisory Committee Tom Neff, Committee Chair Copyright © 2016, American Conifer Society. -
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. -
Cypress Species Choice and Minimising the Risk of Canker
GROWING CYPRESSES FOR TIMBER Species choice and minimising the risk of canker Information Note 1 Cypresses have long been a favourite alternative to radiata pine for New Zealand’s farm foresters, small-scale plantation owners, and some large-scale growers. IN GENERAL, CYPRESSES: • Are a versatile species with proven performance both as a timber producer and as a shelter species. • Produce versatile timber of relatively high value (compared with radiata pine) that is very easy to saw and dry, and has many end uses. • Grow best on moderately fertile, well- drained, sheltered sites, but with careful species and genotype (seedlot) selection will perform well on a reasonably wide range of sites. • Produce their best timber on sheltered sites. 18-year old Cupressus macrocarpa. • Produce quality timber even as young trees, unlike radiata pine. • Have a reputation of being prone to canker. However this is chiefly a problem of C. macrocarpa, and Leyland cypresses on warmer and exposed sites. Susceptibility to canker depends on site, species, and within any given species, the seedlot. Some seedlots are more resistant to canker than others of the same species. New more canker- resistant planting stock is becoming available. • Are prone to toppling on fertile sites, especially if poorly drained, and are particularly unstable on water-logged clay soils. • May cause abortion if foliage is eaten by pregnant cattle. Caution is advised. Cattle raised with access to cypresses tend not to eat the foliage. There is an established market for cypress timber based on ‘macrocarpa’ – a species widely planted throughout New Zealand for many decades, both in plantations and in farm shelter plantings. -
Friends of Botanic Gardens Forum Newsletter Edition 4
FRIENDS OF BOTANIC GARDENS FORUM NEWSLETTER EDITION 4 1 Dear Friends, The best time to plant a tree was 20 years ago. The second best time is now. (Chinese proverb) Well, here at last the 4th issue of the Friends of Botanic Gardens Forum. I have to first of all apologise for the delay in getting this out to you – but I suspect you are all doing as I have been doing these past few months – catching up with friends, family, holidays, your own gardens, considering future events – live or virtual over the forthcoming autumn/winter months and perhaps getting back to volunteering in the gardens/arboreta with whom you are associated. Next up I want to thank you all for your contributions – I have found it so interesting reading about the gardens and the activities of your groups and volunteers. The descriptions are tantalising and I look forward to visiting all of your spaces at some point in the not too distant future. You will note that a number of the gardens are celebrating significant anniversaries. We have already heard about the Royal Botanic Garden Edinburgh - 350 last year, and this year, Oxford Botanic Garden – 400, but we also have Dundee Botanic Garden celebrating 50 years. The project which the Friends at Dundee have supported will be a great asset to the garden and the Dundee community. It has been difficult to mark these occasions given the variable Covid restrictions. Any of you who have visited Edinburgh in the past might have seen the Floral Clock in Princes Street Gardens – last year, the RBGE was due to feature on the clock, but a decision was made to focus on the NHS in recognition of its extraordinary work during the Pandemic. -
Morphology and Morphogenesis of the Seed Cones of the Cupressaceae - Part I Cunninghamioideae, Athrotaxoideae, Taiwanioideae, Sequoioideae, Taxodioideae
1 2 Bull. CCP 3 (3): 117-136. (12.2014) A. Jagel & V.M. Dörken Morphology and morphogenesis of the seed cones of the Cupressaceae - part I Cunninghamioideae, Athrotaxoideae, Taiwanioideae, Sequoioideae, Taxodioideae Summary Seed cone morphology of the basal Cupressaceae (Cunninghamia, Athrotaxis, Taiwania, Metasequoia, Sequoia, Sequoiadendron, Cryptomeria, Glyptostrobus and Taxodium) is presented at pollination time and at maturity. These genera are named here taxodiaceous Cupressaceae (= the former family Taxodiaceae, except for Sciadopitys). Some close relationships exist between genera within the Sequoioideae and Taxodioideae. Seed cones of taxodiaceous Cupressaceae consist of several bract-/seed scale-complexes. The cone scales represent aggregation of both scale types on different levels of connation. Within Cunninghamia and Athrotaxis the bulges growing out of the cone scales represents the distal tip of the seed scale, which has been fused recaulescent with the adaxial part of the bract scale. In Athrotaxis a second bulge, emerging on the distal part of the cone scale, closes the cone. This bulge is part of the bract scale. Related conditions are found in the seed cones of Taiwania and Sequoioideae, but within these taxa bract- and seed scales are completely fused with each other so that vegetative parts of the seed scale are not recognizable. The ovules represent the only visible part of the seed scale. Within taxodiaceous Cupressaceae the number of ovules is increased compared to taxa of other conifer families. It is developed most distinctly within the Sequoioideae, where furthermore more than one row of ovules appears. The rows develop centrifugally and can be interpreted as short-shoots which are completely reduced to the ovules in the sense of ascending accessory shoots. -
Wood Toxicity: Symptoms, Species, and Solutions by Andi Wolfe
Wood Toxicity: Symptoms, Species, and Solutions By Andi Wolfe Ohio State University, Department of Evolution, Ecology, and Organismal Biology Table 1. Woods known to have wood toxicity effects, arranged by trade name. Adapted from the Wood Database (http://www.wood-database.com). A good reference book about wood toxicity is “Woods Injurious to Human Health – A Manual” by Björn Hausen (1981) ISBN 3-11-008485-6. Table 1. Woods known to have wood toxicity effects, arranged by trade name. Adapted from references cited in article. Trade Name(s) Botanical name Family Distribution Reported Symptoms Affected Organs Fabaceae Central Africa, African Blackwood Dalbergia melanoxylon Irritant, Sensitizer Skin, Eyes, Lungs (Legume Family) Southern Africa Meliaceae Irritant, Sensitizer, African Mahogany Khaya anthotheca (Mahogany West Tropical Africa Nasopharyngeal Cancer Skin, Lungs Family) (rare) Meliaceae Irritant, Sensitizer, African Mahogany Khaya grandifoliola (Mahogany West Tropical Africa Nasopharyngeal Cancer Skin, Lungs Family) (rare) Meliaceae Irritant, Sensitizer, African Mahogany Khaya ivorensis (Mahogany West Tropical Africa Nasopharyngeal Cancer Skin, Lungs Family) (rare) Meliaceae Irritant, Sensitizer, African Mahogany Khaya senegalensis (Mahogany West Tropical Africa Nasopharyngeal Cancer Skin, Lungs Family) (rare) Fabaceae African Mesquite Prosopis africana Tropical Africa Irritant Skin (Legume Family) African Padauk, Fabaceae Central and Tropical Asthma, Irritant, Nausea, Pterocarpus soyauxii Skin, Eyes, Lungs Vermillion (Legume Family) -
Gene Duplications and Genomic Conflict Underlie Major Pulses of Phenotypic 2 Evolution in Gymnosperms 3 4 Gregory W
bioRxiv preprint doi: https://doi.org/10.1101/2021.03.13.435279; this version posted March 15, 2021. The copyright holder for this preprint (which was not certified by peer review) is the author/funder, who has granted bioRxiv a license to display the preprint in perpetuity. It is made available under aCC-BY-NC-ND 4.0 International license. 1 1 Gene duplications and genomic conflict underlie major pulses of phenotypic 2 evolution in gymnosperms 3 4 Gregory W. Stull1,2,†, Xiao-Jian Qu3,†, Caroline Parins-Fukuchi4, Ying-Ying Yang1, Jun-Bo 5 Yang2, Zhi-Yun Yang2, Yi Hu5, Hong Ma5, Pamela S. Soltis6, Douglas E. Soltis6,7, De-Zhu Li1,2,*, 6 Stephen A. Smith8,*, Ting-Shuang Yi1,2,*. 7 8 1Germplasm Bank of Wild Species, Kunming Institute of Botany, Chinese Academy of Sciences, 9 Kunming, Yunnan, China. 10 2CAS Key Laboratory for Plant Diversity and Biogeography of East Asia, Kunming Institute of 11 Botany, Chinese Academy of Sciences, Kunming, China. 12 3Shandong Provincial Key Laboratory of Plant Stress Research, College of Life Sciences, 13 Shandong Normal University, Jinan, Shandong, China. 14 4Department of Geophysical Sciences, University of Chicago, Chicago, IL, USA. 15 5Department of Biology, Huck Institutes of the Life Sciences, Pennsylvania State University, 16 University Park, PA, USA. 17 6Florida Museum of Natural History, University of Florida, Gainesville, FL, USA. 18 7Department of Biology, University of Florida, Gainesville, FL, USA. 19 8Department of Ecology and Evolutionary Biology, University of Michigan, Ann Arbor, 20 MI, USA. 21 †Co-first author. 22 *Correspondence to: [email protected]; [email protected]; [email protected]. -
Analysis and Comparison of Essential Oil Components Extracted from the Heartwoods of Leyland Cypress, Alaska Yellow Cedar, and Monterey Cypress
AN ABSTRACT OF THE THESIS OF Xinfeng Liu for the degree of Master of Science in Wood Science presented on March 17, 2009. Title: Analysis and Comparison of Essential Oil Components Extracted from the Heartwoods of Leyland Cypress, Alaska Yellow Cedar, and Monterey Cypress. Abstract approved: ___________________________ Joseph J. Karchesy The essential oil components of cedar heartwoods play an important role in the durability of these trees. Yet, the composition of these oils and identity of many of the compounds remains unknown, or incompletely know for some commercially important cedar heartwoods. The essential oil extracts of Alaska Yellow Cedar (Chamaecyparis nootkatensis), Monterey Cypress (Cupressus macrocarpa), and Leyland Cypress (xCupressoparis leylandii ) which is an intergenetic hybrid of the first two species is such a case. GC-MS analyses were carried out on the heartwood essential oil extracts of these three species in order to determine the chemical composition of each essential oil and to compare the composition of the intergenetic hybrid (Leyland Cypress) with its parent species. Analyses were carried out on both steam distilled (6 and 12 hour) and solvent extracted oils. For example in the 6 hour distilled oils, Carvacrol was the major component of all three oils, 27% (Alaska Cedar), 67% (Leyland Cypress) and 82% (Monterey Cypress). Terpinen-4-ol and nootkatin were also found in all three oils, but in lesser amounts (3-6%). Only the oils from Alaska cedar and Leyland cypress contained the eremophilane sesquiterpenoids valencene, nootkatene, epinootkatol, nootkatol, 13-hydroxy valencene and nootkatone. This family of compounds was completely absent in Monterey cypress oil.