Differential Resistance of Gordonieae Trees to Phytophthora Cinnamomi
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Louisiana Certified Habitat Plant List Native Woody Plants (Trees
Louisiana Certified Habitat Plant List Native Woody Plants (trees, shrubs, woody vines) Common name Scientific name Stewartia Gum, Swamp Black Nyssa biflora Camellia, Silky malacodendron Acacia, Sweet Acacia farnesiana Catalpa Gum, Tupelo Nyssa aquatica Liquidambar Alder, Black/Hazel Alnus rugosa Catalpa, Southern bignonioides Gum, Sweet styriciflua Allspice, Carolina/ Cedar, Eastern Red Juniperus virginiana Sweet Shrub Calycanthus floridus Cedar, Hackberry Celtis laevigata Ashes, Native Fraxinus spp. Atlantic/Southern Chamaecyparis Hawthorn, Native Crataegus spp. White thyoides Hawthorn, Barberry- Ash, Green F. pennsylvanicum Cherry, Black Prunus serotina leaf C. berberifolia Ash, Carolina F. caroliniana Hawthorn, Cherry, Choke Aronia arbutifolia Ash, Pumpkin F. profunda Blueberry C. brachycantha Cherry-laurel Prunus caroliniana Hawthorn, Green C. viridis Ash, White F. americana Chinquapin Castanea pumila Hawthorn, Mayhaw C. aestivalis/opaca Rhododendron Coralbean, Azalea, Pink canescens Eastern/Mamou Erythrina herbacea Hawthorn, Parsley C. marshallii Azalea, Florida Rhododendron Crabapple, Southern Malus angustifolia Hickories, Native Carya spp. Flame austrinum Creeper, Trumpet Campsis radicans Hickory, Black C. texana Anise, Star Illicium floridanum Parthenocissus Anise, Hickory, Bitternut C. cordiformes Creeper, Virginia quinquefolia Yellow/Florida Illicium parviflorum Hickory, Mockernut C. tomentosa Azalea, Florida Rhododendron Crossvine Bignonia capreolata Flame austrinum Hickory, Nutmeg C. myristiciformes Cucumber Tree Magnolia acuminata Rhododendron Hickory, PECAN C. illinoensis Azalea, Pink canescens Cypress, Bald Taxodium distichum Hickory, Pignut C. glabra Rhododendron Cypress, Pond Taxodium ascendens serrulatum, Hickory, Shagbark C. ovata Cyrilla, Swamp/Titi Cyrilla racemiflora viscosum, Hickory, Azalea, White oblongifolium Cyrilla, Little-leaf Cyrilla parvifolia Water/Bitter Pecan C. aquatica Baccharis/ Groundsel Bush Baccharis halimifolia Devil’s Walkingstick Aralia spinosa Hollies, Native Ilex spp. Baccharis, Salt- Osmanthus Holly, American I. -
Biosphere Consulting 14908 Tilden Road ‐ Winter Garden FL 34787 (407) 656 8277
Biosphere Consulting 14908 Tilden Road ‐ Winter Garden FL 34787 (407) 656 8277 www.BiosphereNursery.com The following list of plants include only native wetland and transitional species used primarily in aquascaping, lakefront and wetland restoration. Biosphere also carries a large number of upland species and BIOSCAPE species, as well as wildflower seeds and plants. The nursery is open to the public on Tuesday through Saturday only from 9:00 A.M. until 5:00 P.M. Prices are F.O.B. the nursery. * Bare root plants must be ordered at least two (2) days prior to pick-up. PRICE LIST NATIVE WETLAND AND TRANSITIONAL SPECIES HERBACEOUS SPECIES *Bare Root 1 Gal. 3 Gal. Arrowhead (Sagittaria latifolia) .50 2.50 --- Bulrush (Scirpus californicus & S.validus) .50 --- 8.00 Burrmarigold (Bidens leavis) --- 2.00 --- Canna (Canna flaccida) .60 2.00 --- Crinum (Crinum americanum) 1.50 3.00 10.00 Duck Potato (Sagittaria lancifolia) .60 2.00 --- Fragrant Water Lily (Nymphaea odorata) 5.00 --- 12.00 Hibiscus (Hibiscus coccinea) --- 3.00 8.00 Horsetail (Equisetum sp.) .80 2.00 --- Iris (Iris savannarum) .60 2.00 --- Knotgrass (Paspalum distichum) .50 2.00 --- Lemon Bacopa (Bacopa caroliniana) --- 3.50 --- Lizards Tail (Saururus cernuus) .60 2.50 --- Maidencane (Panicum hemitomon) .50 2.00 --- Pickerelweed (Pontederia cordata) .50 2.00 --- Redroot (Lachnanthes carolinana) .60 2.00 --- Sand Cord Grass (Spartina bakeri) .50 3.50 --- Sawgrass (Cladium jamaicense) .60 3.00 --- Softrush (Juncus effusus) .50 2.00 --- Spikerush (Eleocharis cellulosa) .70 2.00 --- -
Vegetation, Floristic Composition and Species Diversity in a Tropical Mountain Nature Reserve in Southern Yunnan, SW China, with Implications for Conservation
Mongabay.com Open Access Journal - Tropical Conservation Science Vol.8 (2): 528-546, 2015 Research Article Vegetation, floristic composition and species diversity in a tropical mountain nature reserve in southern Yunnan, SW China, with implications for conservation Hua Zhu*, Chai Yong, Shisun Zhou, Hong Wang and Lichun Yan Center for Integrative Conservation, Xishuangbanna Tropical Botanical Garden, Chinese Academy of Sciences, Xue-Fu Road 88, Kunming, Yunnan 650223, P. R. China Tel.: 0086-871-65171169; Fax: 0086-871-65160916 *Corresponding author: H. Zhu, e-mail [email protected]; Fax no.: 86-871-5160916 Abstract Complete floristic and vegetation surveys were done in a newly established nature reserve on a tropical mountain in southern Yunnan. Three vegetation types in three altitudinal zones were recognized: a tropical seasonal rain forest below 1,100 m; a lower montane evergreen broad- leaved forest at 1,100-1,600 m; and a montane rain forest above 1,600 m. A total of 1,657 species of seed plants in 758 genera and 146 families were recorded from the nature reserve. Tropical families (61%) and genera (81%) comprise the majority of the flora, and tropical Asian genera make up the highest percentage, showing the close affinity of the flora with the tropical Asian (Indo-Malaysia) flora, despite the high latitude (22N). Floristic changes with altitude are conspicuous. The transition from lowland tropical seasonal rain forest dominated by mixed tropical families to lower montane forest dominated by Fagaceae and Lauraceae occurs at 1,100-1,150 m. Although the middle montane forests above 1,600 m have ‘oak-laurel’ assemblage characteristics, the temperate families Magnoliaceae and Cornaceae become dominant. -
An Intergeneric Hybrid Between Franklinia Alatamaha and Gordonia
HORTSCIENCE 41(6):1386–1388. 2006. hybrids using F. alatamaha. Ackerman and Williams (1982) conducted extensive crosses · between F. alatamaha and Camellia L. spp. Gordlinia grandiflora (Theaceae): and produced two intergeneric hybrids, but their growth was weak and extremely slow. An Intergeneric Hybrid Between Ranney and colleagues (2003) reported suc- cessful hybridization between F. alatamaha Franklinia alatamaha and and Schima argentea Pritz. In 1974, Dr. Elwin Orton, Jr. successfully crossed G. lasianthus with F. alatamaha and produced 33 hybrids Gordonia lasianthus (Orton, 1977). Orton (1977) further reported Thomas G. Ranney1,2 that the seedlings grew vigorously during the Department of Horticultural Science, Mountain Horticultural Crops first growing season and that a number of them flowered the following year; however, Research and Extension Center, North Carolina State University, 455 all the plants eventually died, possibly be- Research Dr., Fletcher, NC 28732-9244 cause of some type of genetic incompatibility 1 or a pathogen (e.g., Phytophthora). Although Paul R. Fantz Orton’s report was somewhat discouraging, Department of Horticultural Science, Box 7603, North Carolina State hybridization between F. alatamaha and University, Raleigh, NC 27695-7609 G. lasianthus could potentially combine the cold hardiness of F. alatamaha with the ever- Additional index words. Gordonia alatamaha, Gordonia pubescens, distant hybridization, green foliage of G. lasianthus and broaden intergeneric hybridization, plant breeding, wide hybridization the genetic base for further breeding among Abstract. Franklinia alatamaha Bartr. ex Marshall represents a monotypic genus that was these genera. The objective of this report is originally discovered in Georgia, USA, but is now considered extinct in the wild and is to describe the history of and to validate new maintained only in cultivation. -
Plant Succession on Burned Areas in Okefenokee Swamp Following the Fires of 1954 and 1955 EUGENE CYPERT Okefenokee National Wildlife Refuge U.S
Plant Succession on Burned Areas in Okefenokee Swamp Following the Fires of 1954 and 1955 EUGENE CYPERT Okefenokee National Wildlife Refuge U.S. Bureau of Sport Fisheries and 'Wildlife Waycross, GA 31501 INTRODUCTION IN 1954 and 1955, during an extreme drought, five major fires occurred in Okefenokee Swamp. These fires swept over approximately 318,000 acres of the swamp and 140,000 acres of the adjacent upland. In some areas in the swamp, the burning was severe enough to kill most of the timber and the understory vegetation and burn out pockets in the peat bed. Burns of this severity were usually small and spotty. Over most of the swamp, the burns were surface fires which generally killed most of the underbrush but rarely burned deep enough into the peat bed to kill the larger trees. In many places the swamp fires swept over lightly, burning surface duff and killing only the smaller underbrush. Some areas were missed entirely. On the upland adjacent to the swamp, the fires were very de structive, killing most of the pine timber on the 140,000 acres burned over. The destruction of pine forests on the upland and the severe 199 EUGENE CYPERT burns in the swamp caused considerable concern among conservation ists and neighboring land owners. It was believed desirable to learn something of the succession of vegetation on some of the more severely burned areas. Such knowl edge would add to an understanding of the ecology and history of the swamp and to an understanding of the relation that fires may have to swamp wildlife. -
Gardenias, Magnolias and Oleanders
Gardenias, Magnolias and Oleanders Gardenia jasminoides is cultivated throughout the gardens of New Orleans as a sweet-scented flowering shrub. The Gardenia is a genus of 142 species of flowering plants in the coffee family, Rubiaceae, native to the tropical and subtropical regions of Africa, southern Asia, Australasia and Oceania. Several species occur on the island of Hawaii, and is known in to many people in New Orleans as the Cape jasmine. The fragrant and beautiful gardenia Since this species originated in warm humid tropical areas, it demands high humidity to thrive and bright (not direct) light. It flourishes in acidic soils with good drainage and thrives in Crescent City temperatures. Flowering is from about mid-spring to mid-summer, with May the predominant month. The stunningly beautiful shrub with the fragrant white flowers did not derive its name from “the garden”, however. It all began in Charleston, South Carolina, where there lived a Scottish-born botanist named Dr. Alexander Garden (1730 -1791). He was a member of several learned societies and was a fellow of the Royal Society in London. He collected all manner of flora and fauna, which he packed up and sent to London zoologist John Ellis and famous Swedish naturalist Carl Linnaeus. He bundled up and sent them various magnolias and some Gordonia specimens, but the plant that bears his name had nothing to do with his particular efforts. It wasn’t even American. Linnaeus was strongly persuaded by Ellis to name something after Garden, so the Gardenia became the name for the Cape jasmine, also known as Cape jessamine. -
© 2008 Stephanie Volmer ALL RIGHTS RESERVED
© 2008 Stephanie Volmer ALL RIGHTS RESERVED PLANTING A NEW WORLD: LETTERS AND LANGUAGES OF TRANSATLANTIC BOTANICAL EXCHANGE, 1733-1777 By STEPHANIE VOLMER A Dissertation submitted to the Graduate School-New Brunswick Rutgers, The State University of New Jersey in partial fulfillment of the requirements for the degree of Doctor of Philosophy Graduate Program in Literatures in English written under the direction of Myra Jehlen and approved by ______________________________ ______________________________ ______________________________ ______________________________ New Brunswick, New Jersey May 2008 ABSTRACT OF THE DISSERTATION Planting a New World: Letters and Languages of Transatlantic Botanical Exchange, 1733-1777 by STEPHANIE VOLMER Dissertation Director: Myra Jehlen My dissertation describes an important change in the accepted understanding and imagination of nature. This change took place over the course of the eighteenth century, when nature, from being conceived of as a settled state subject to cyclical change, came to be seen as mobile and mutable. The sense of a mobile, mutable nature--the dissertation's central trope--arose from the experience of travel and discovery, which was accompanied from the first by a vigorous process of transplantation. Plants and seeds were carried across oceans, having been dug up on one continent to be replanted often in another. From being static and predictable, plant life therefore became, for scholars and poets alike, dynamic, mutable, and adaptable. I focus on the writings of a small group of men in the Anglo-American world, including John and William Bartram, Peter Collinson, Alexander Garden, John Ellis, and Carl Linnaeus, who were engaged in the work of transporting, planting, writing about, and classifying botanical objects. -
Agrosilvopastoral Systems in Northern Thailand and Northern Laos: Minority Peoples’ Knowledge Versus Government Policy
Land 2014, 3, 414-436; doi:10.3390/land3020414 OPEN ACCESS land ISSN 2073-445X www.mdpi.com/journal/land/ Article Agrosilvopastoral Systems in Northern Thailand and Northern Laos: Minority Peoples’ Knowledge versus Government Policy Chalathon Choocharoen 1, Andreas Neef 2,*, Pornchai Preechapanya 3 and Volker Hoffmann 1 1 Institute for Social Sciences of the Agricultural Sector, Rural Communication and Extension (430a), University of Hohenheim, 70593 Stuttgart, Germany; E-Mails: [email protected] (C.C.); [email protected] (V.H.) 2 Center for Development Studies, School of Social Sciences, Faculty of Arts, University of Auckland, Auckland 1142, New Zealand 3 Queen Sirikit Botanic Garden, Mae Rim, Chiang Mai 50180, Thailand; E-Mail: [email protected] * Author to whom correspondence should be addressed; E-Mail: [email protected]; Tel.: +64-9-9233486; Fax: +64-9-3737439. Received: 28 January 2014; in revised form: 2 May 2014 / Accepted: 13 May 2014 / Published: 20 May 2014 Abstract: Traditional agrosilvopastoral systems have been an important component of the farming systems and livelihoods of thousands of ethnic minority people in the uplands of Mainland Southeast Asia. Drawing on a combination of qualitative and participatory inquiries in nine ethnic minority communities, this study emphasizes the complex articulation of local farmers’ knowledge which has been so far excluded from governmental development and conservation policies in the northern uplands of Thailand and Laos. Qualitative analysis of local knowledge systems is performed using the Agroecological Knowledge Toolkit (AKT5) software. Results show that ethnic minorities in the two countries perceive large ruminants to be a highly positive component of local forest agro-ecosystems due to their contribution to nutrient cycling, forest fire control, water retention, and leaf-litter dispersal. -
Schima Wallichii (DC.) Korth
Schima wallichii (DC.) Korth. Theaceae simartolu, schima, samak, needlewood, mang tan, Chinese guger tree, chilauni LOCAL NAMES Bengali (cheloni,mukria sal,makrisal); Burmese (laukya); Chinese (he,muhe,heshu,hemu,haozi haozi,gaobei,Chinese guger tree); English (needlewood,schima); Hindi (makusal,kanak,dieng-shyr-nagan,chilauni,nogabhe); Indonesian (seru,madang gatal,puspa); Javanese (medang gatal,seru); Lao (Sino- Tibetan) (‘mi,boun nak,‘khai sou); Malay (kelinchi padi,gegatal,medang gatal,gatal-gatal,samak); Nepali (sule-chilauni,aule-chilaune,chilaune,goe- chassi); Thai (thalo,champa dong,bunnak); Trade name (simartolu,Chinese guger tree,samak,needlewood,schima,mang tan,chilauni); Vietnamese (v[oos]i thu[oos]c) BOTANIC DESCRIPTION Schima wallichii is an evergreen, medium-sized to large tree growing to 47 m in height; bole cylindrical, branchless for up to 25 m, diameter up to 125 (max. 250) cm, with a steep buttresses rarely up to 1.8 m high; bark surface ruggedly cracked into small, thick, angular pieces, red-brown to dark grey; inner bark with skin-irritating fibres, bright red in colour. Leaves spiral, oblong to broadly elliptic, 6-13 x 3-5 cm; base wedge shaped; apex acute to acuminate; margin toothed; secondary veins 6-8 pairs; petioles about 3 mm long. Flowers solitary in axils at the apices of twigs, with 2 bracteoles, pentamerous; sepals subequal, persistent in fruit; petals connate at base, white, with a rosy flush; stamens many, adnate to the corolla base; anthers versatile; ovary superior, 5-locular with 2-6 ovules in each cell; style simple. Fruit a woody subglobose capsule, 2-3 cm in diameter, silky, opening by 5 valves; seeds winged all around. -
Field Identification Guide to WAP Plants 2008 3Rd Ed
The Field Identification Guide to Plants Used in the Wetland Assessment Procedure (WAP) Contributors: Shirley R. Denton, Ph.D. - Biological Research Associates Diane Willis, MS – GPI Southeast, Inc. April 2008 Third Edition (2015 Printing) The Field Identification Guide was prepared by the Southwest Florida Water Management District. Additional copies can be obtained from the District at: Southwest Florida Water Management District Resource Projects Department Ecological Evaluation Section 2379 Broad Street Brooksville, Florida 34604 The Southwest Florida Water Management District (District) does not discriminate on the basis of disability. This nondiscrimination policy involves every aspect of the District’s functions, including access to and participation in the District’s programs and activities. Anyone requiring reasonable accommodation as provided for in the Americans with Disabilities Act should contact the District’s Human Resources Bureau Chief, 2379 Broad St., Brooksville, FL 34604-6899; telephone (352) 796-7211 or 1-800-423-1476 (FL only), ext. 4703; or email [email protected]. If you are hearing or speech impaired, please contact the agency using the Florida Relay Service, 1(800)955-8771 (TDD) or 1(800)955-8770 (Voice). Introduction In 1996, the Florida Legislature directed the Southwest Florida Water Management District (District) to begin the process of establishing Minimum Flows and Levels (MFLs) throughout the District, beginning in Hillsborough, Pasco, and Pinellas counties. MFLs are defined as the flow in watercourses below which significant harm to water resources and ecology of the area would occur, and the level in surface-water bodies and aquifers in which significant harm to the water resources of the area would occur. -
Forest Structures, Composition, and Distribution on a Pacific Island, with Reference to Ecological Release and Speciation!
Pacific Science (1991), vol. 45, no. 1: 28-49 © 1991 by University of Hawaii Press. All rights reserved Forest Structures, Composition, and Distribution on a Pacific Island, with Reference to Ecological Release and Speciation! YOSHIKAZU SHIMIZU2 AND HIDEO TABATA 3 ABSTRACT: Native forest and scrub of Chichijima, the largest island in the Bonins, were classified into five types based on structural features: Elaeocarpus Ardisia mesic forest, 13-16 m high, dominated by Elaeocarpus photiniaefolius and Ardisia sieboldii; Pinus-Schima mesic forest, 12-16 m high, consisting of Schima mertensiana and an introduced pine , Pinus lutchuensis; Rhaphiolepis Livistonia dry forest, 2-6 m high, mainly occupied by Rhaphiolepis indica v. integerrima; Distylium-Schima dry forest, 3-8 m high, dominated by Distylium lepidotum and Schima mertensiana; and Distylium-Pouteria dry scrub, 0.3 1.5 m high, mainly composed of Distylium lepidotum. A vegetation map based on this classification was developed. Species composition and structural features of each type were analyzed in terms of habitat condition and mechanisms of regeneration. A group of species such as Pouteria obovata, Syzgygium buxifo lium, Hibiscus glaber, Rhaphiolepis indica v. integerrima, and Pandanus boninen sis, all with different growth forms from large trees to stunted shrubs, was subdominant in all vegetation types. Schima mertensiana , an endemic pioneer tree, occurred in both secondary forests and climax forests as a dominant canopy species and may be an indication of "ecological release," a characteristic of oceanic islands with poor floras and little competitive pressure. Some taxonomic groups (Callicarpa, Symplocos, Pittosporum, etc.) have speciated in the under story of Distylium-Schima dry forest and Distylium-Pouteria dry scrub. -
Vegetation Changes from the Late Pleistocene Through the Holocene from Three Areas of Archaeological Significance in Thailand Joyce C
ARTICLE IN PRESS Quaternary International 113 (2004) 111–132 Vegetation changes from the late Pleistocene through the Holocene from three areas of archaeological significance in Thailand Joyce C. Whitea,*, Daniel Pennyb, Lisa Kealhoferc, BernardMaloney d,{ a University of Pennsylvania Museum, 3260 South Street, Philadelphia, PA 19104-6324, USA b School of Geosciences, Department of Archaeology and the Australian Key Centre for Microscopy and Microanalysis, University of Sydney, Madsen Building FO9, 2006 NSW, Australia c Department of Anthropology and Sociology/Environmental Studies Program, Santa Clara University, Santa Clara, CA 95053, USA d School of Archaeology and Palaeoecology, The Queen’s University, Belfast BT7 1NN, Northern Ireland, UK Abstract Reconstruction of the environmental history of mainlandSoutheast Asia from the late Pleistocene is a relatively recent endeavor. Beginning in the mid-1990s, lacustrine sediments in Thailand with deposits dating from the late Pleistocene have been cored and analyzedfor palaeoenvironmental indicators.The three cores reportedhere were extractedby the ThailandPalaeoenvironment Project, whose objective was to retrieve empirical data on vegetation and sedimentary sequences that can in turn be related to the growing archaeological record from this part of monsoonal Asia. This evidence, along with data from other recently analyzed cores, is beginning to develop a picture of regionally diverse environmental/cultural trajectories. Possible relationships between the environmental changes and cultural and/or climatic impacts are discussed. r 2003 Elsevier LtdandINQUA. All rights reserved. 1. Introduction cene hadbeen extractedandanalyzedfor palaeovegeta- tion andother environmental changes. Those records For research on the evolution of Asia’s monsoonal that hadbeen publishedwere only a few millennia in system, Thailandholdsa key geographic position.