Wild About Wildflowers! a Classroom Activity Guide
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Humnet's Top Hummingbird Plants for the Southeast
HumNet's Top Hummingbird Plants for the Southeast Votes Species Common Name Persistence US Native 27 Salvia spp. Salvia or Sage Perennial, annuals Yes - some species 8 Malvaviscus arboreus var. drummondii Turkscap Perennial Yes 8 Salvia gauranitica Anise Sage Perennial 6 Cuphea spp. Cuphea Perennial, annuals 5 Justicia brandegeana Shrimp Plant Tender Perennial 5 Salvia coccinea Scarlet Sage, Texas Sage Annual - reseeds Yes 5 Stachytarpheta spp. Porterweed Annual, tender perennial S. jamaicensis only 4 Cuphea x 'David Verity' David Verity Cigar Plant Perennial 4 Hamellia patens Mexican Firebush Perennial 3 Abutilon spp. Flowering Maple Tender perennial 3 Callistemon spp. Bottlebrush Shrub - evergreen 3 Canna spp. Canna, Flag Perennial Yes - some species 3 Erythrina spp. Mamou Bean, Bidwill's Coral Bean, Crybaby Tree Perennial E. herbacea only 3 Ipomoea spp. Morning Glory, Cypress Vine Vines - perennials, annuals Yes 3 Lonicera sempervirens Coral Honeysuckle Vine - Woody Yes 2 Campsis radicans Trumpet Creeper Vine - Woody Yes 2 Lantana spp. Lantana Perennial Yes - some species 2 Odontonema stricta Firespike Perennial, tender perennial 2 Pentas lanceolata Pentas Annual 2 Salvia elegans Pineapple Sage Perennial 2 Salvia greggii Autumn Sage Perennial Yes 2 Salvia x 'Wendy's Wish' Wendy's Wish Salvia Perennial, tender perennial 1 Aesculus spp. Buckeye Shrubs, trees - deciduous Yes 1 Agastache 'Summer Love' Summer Love Agastache Perennial 1 Aquilegia canadensis Columbine Perennial, biennial Yes 1 Calliandra spp. Powder Puff Tropical 1 Cuphea micropetala Giant Cigar Plant Perennial 1 Erythrina herbacea Mamou Bean Perennial Yes 1 Erythrina x bidwillii Bidwill's Coral Tree Perennial 1 Hedychium spp. Ginger Perennial 1 Impatiens capensis Jewelweed Annual Yes Votes Species Common Name Persistence US Native 1 Ipomoea quamoclit Cypress Vine Vine - woody 1 Iris spp. -
Erythrina Mothsterastia Meticulosalis Guenée and Agathodes Designalis
EENY 516 Erythrina moths Terastia meticulosalis Guenée and Agathodes designalis Guenée 1 Andrei Sourakov2 Introduction In Florida, and throughout the North American popula- tions, A. designalis is represented by the subspecies A. Although little known, the Erythrina moths Terastia designalis monstralis, while A. designalis designalis was meticulosalis Guenée and Agathodes designalis Guenée originally described from South America. Additional work represent a remarkable case of niche partitioning (Sourakov on the genus, including new methods such as the DNA 2011). In Florida, throughout the southern United States, barcoding, is likely to change current classification of the and from Mexico to Argentina, these two species feed on genus (Dan Janzen, pers. com.). For instance, larvae of A. plants of the genus Erythrina (Fabaceae). This genus, while designalis in Costa Rica are different from those in Florida, mostly known as attractive ornamentals, has medicinal and perhaps emphasizing the underlying taxonomic differences other uses (Powell and Westley 1993). The descriptions of (Janzen & Hallwachs 2011; Sourakov 2011). the moths’ life histories below are based on north-central Florida populations that use the coral bean, Erythrina herbacea, as a hostplant. This plant is not only native to the region, but is also frequently used as an ornamental. Synonymy There are four other species within the genus Terastia. In the past, T. subjectalis (found in Australia and throughout Asia) had been considered a synonym of T. meticulosalis, but now is listed in modern literature as a separate species. The taxonomic status of T. meticulosalis populations in Africa, where it is listed from Kenya, South Africa, Uganda, and Sierra Leone, is unclear. -
Diversidad De Plantas Y Vegetación Del Páramo Andino
Plant diversity and vegetation of the Andean Páramo Diversidad de plantas y vegetación del Páramo Andino By Gwendolyn Peyre A thesis submitted for the degree of Doctor from the University of Barcelona and Aarhus University University of Barcelona, Faculty of Biology, PhD Program Biodiversity Aarhus University, Institute of Bioscience, PhD Program Bioscience Supervisors: Dr. Xavier Font, Dr. Henrik Balslev Tutor: Dr. Xavier Font March, 2015 Aux peuples andins Summary The páramo is a high mountain ecosystem that includes all natural habitats located between the montane treeline and the permanent snowline in the humid northern Andes. Given its recent origin and continental insularity among tropical lowlands, the páramo evolved as a biodiversity hotspot, with a vascular flora of more than 3400 species and high endemism. Moreover, the páramo provides many ecosystem services for human populations, essentially water supply and carbon storage. Anthropogenic activities, mostly agriculture and burning- grazing practices, as well as climate change are major threats for the páramo’s integrity. Consequently, further scientific research and conservation strategies must be oriented towards this unique region. Botanical and ecological knowledge on the páramo is extensive but geographically heterogeneous. Moreover, most research studies and management strategies are carried out at local to national scale and given the vast extension of the páramo, regional studies are also needed. The principal limitation for regional páramo studies is the lack of a substantial source of good quality botanical data covering the entire region and freely accessible. To meet the needs for a regional data source, we created VegPáramo, a floristic and vegetation database containing 3000 vegetation plots sampled with the phytosociological method throughout the páramo region and proceeding from the existing literature and our fieldwork (Chapter 1). -
Appendix A. Plant Species Known to Occur at Canaveral National Seashore
National Park Service U.S. Department of the Interior Natural Resource Stewardship and Science Vegetation Community Monitoring at Canaveral National Seashore, 2009 Natural Resource Data Series NPS/SECN/NRDS—2012/256 ON THE COVER Pitted stripeseed (Piriqueta cistoides ssp. caroliniana) Photograph by Sarah L. Corbett. Vegetation Community Monitoring at Canaveral National Seashore, 2009 Natural Resource Report NPS/SECN/NRDS—2012/256 Michael W. Byrne and Sarah L. Corbett USDI National Park Service Southeast Coast Inventory and Monitoring Network Cumberland Island National Seashore 101 Wheeler Street Saint Marys, Georgia, 31558 and Joseph C. DeVivo USDI National Park Service Southeast Coast Inventory and Monitoring Network University of Georgia 160 Phoenix Road, Phillips Lab Athens, Georgia, 30605 March 2012 U.S. Department of the Interior National Park Service Natural Resource Stewardship and Science Fort Collins, Colorado The National Park Service, Natural Resource Stewardship and Science office in Fort Collins, Colorado publishes a range of reports that address natural resource topics of interest and applicability to a broad audience in the National Park Service and others in natural resource management, including scientists, conservation and environmental constituencies, and the public. The Natural Resource Data Series is intended for the timely release of basic data sets and data summaries. Care has been taken to assure accuracy of raw data values, but a thorough analysis and interpretation of the data has not been completed. Consequently, the initial analyses of data in this report are provisional and subject to change. All manuscripts in the series receive the appropriate level of peer review to ensure that the information is scientifically credible, technically accurate, appropriately written for the intended audience, and designed and published in a professional manner. -
Fire in the Southeastern Grasslands, By
Fire in the Southeastern Grasslands RICHARD J. VOGL Department of Biology California State University Los Angeles, CA 90032 INTRODUCTION ~ERE has been more research on the effects of fire in the southeastern United States than in any region of North America. Most studies have been concerned with the effects of fire on the trees, including the role of fire in controlling hardwood suc cession, fire damage to trees, the effects of fire on soils and litter, the influence of fire on conifer growth and reproduction, and the relationships of fire to tree diseases (Garren 1943; Ahlgren and Ahlgren 1960; Cushwa 1968). A lesser, but stilI substantial number of studies have been focused on the effects of fire on forage yields and livestock production (Wahlenberg et al. 1939), and the use of fire in wildlife management in the Southeast. But academic or phy tosociological studies of the vegetational composition and of the effects of fire on the understory vegetation are generally lacking. Except for some range and wildlife research and several general studies (Wells and Shunk 1931; Leukel and St<Jkes 1939; Biswell and Lemon 1943; Burton 1944; Lemon 1949, 1967; Campbell 1955; Biswell1958; Hodgkins 1958; Arata 1959; Cushwa et al. 1966, 1970; Wolters 1972) , most investigators have ignored the herbaceous cover or grassland vegetation under southeastern trees. Even early botanists often became more interested in the unusual botanical features such as the southern extent of Appalachian tree species (Harper 1943, 1952), the description of the silaceous dunes of the 175 RICHARD J. VOGL Gulf Coast (Kurz 1942), the habits of eastern red cedar (Harper 1912), the vegetation of the Okefenokee Swamp (Wright and Wright 1932), or why the Black Belt Prairie of Alabama was treeless (Ranking and Davis 1971), thereby neglecting the widespread and common grassland vegetation and its relationship to fire. -
Selective Buche Inhibitory Activity, Chemical Composition, and Enantiomeric Content of the Essential Oil from Salvia Leucantha Cav
plants Article Selective BuChE Inhibitory Activity, Chemical Composition, and Enantiomeric Content of the Essential Oil from Salvia leucantha Cav. Collected in Ecuador Gabriela Villalta 1 , Melissa Salinas 1 , James Calva 1 , Nicole Bec 2 , Christian Larroque 2, Giovanni Vidari 3 and Chabaco Armijos 1,* 1 Departamento de Química, Universidad Técnica Particular de Loja, 1101608 Loja, Ecuador; [email protected] (G.V.); [email protected] (M.S.); [email protected] (J.C.) 2 Institute for Regenerative Medicine and Biotherapy (IRMB), Université de Montpellier, INSERM, CHU Montpellier, 34295 Montpellier, France; [email protected] (N.B.); [email protected] (C.L.) 3 Medical Analysis Department, Faculty of Science, Tishk International University, Erbil 44001, Iraq; [email protected] * Correspondence: [email protected] Abstract: The essential oil (EO) of Salvia leucantha Cav. was isolated by steam distillation of the aerial parts collected in the South of Ecuador. Its physical properties were evaluated and the chemical composition of the oil was determined by GC-MS and GC-FID analyses using two chro- matographic columns, DB-5ms and HP-INNOWax. Six major compounds were identified, namely, the sesquiterpenes 6.9-guaiadiene (19.14%), (E)-caryophyllene (16.80%), germacrene D (10.22%), Citation: Villalta, G.; Salinas, M.; (E)-β-farnesene (10.00%), and bicyclogermacrene (7.52%), and the monoterpenoid bornyl acetate Calva, J.; Bec, N.; Larroque, C.; Vidari, (14.74%). Furthermore, four pairs of enantiomers were determined by enantioselective GC-MS of G.; Armijos, C. Selective BuChE the essential oil. (−)-germacrene D and (+)-α-pinene showed the highest enantiomeric excess (ee%). Inhibitory Activity, Chemical Composition, and Enantiomeric In an in vitro assay, the essential oil demonstrated an interesting inhibitory activity of the enzyme Content of the Essential Oil from butyrylcholinesterase (BuChE), with an IC50 = 32.60 µg/mL, which is the highest determined for Salvia leucantha Cav. -
Erythrina Mothsterastia Meticulosalis Guenée and Agathodes Designalis
Archival copy: for current recommendations see http://edis.ifas.ufl.edu or your local extension office. Archival copy: for current recommendations see http://edis.ifas.ufl.edu or your local extension office. EENY 516 Erythrina moths Terastia meticulosalis Guenée and Agathodes designalis Guenée 1 Andrei Sourakov2 Introduction Although little known, the Erythrina moths Terastia meticulosalis Guenée and Agathodes designalis Guenée represent a remarkable case of niche partitioning (Sourakov 2011). In Florida, throughout the southern United States, and from Mexico to Argentina, these two species feed on plants of the genus Erythrina (Fabaceae). This genus, while mostly known as attractive ornamentals, has medicinal and other uses (Powell and Wesltley 1993). The descriptions of the moths’ life histories below are based on north-central Florida populations that use the coral bean, Erythrina herbacea, as a hostplant. This plant is not only native to the region, but is also frequently used as an ornamental. Figure 1. An adult Erythrina stem-borer, Terastia meticulosalis Guenée. Photographed in Gainesville, Florida Credits: Andrei Sourakov, Synonymy University of Florida There are four other species within the genus Terastia. In the past, T. subjectalis (found in Australia and throughout In Florida, and throughout the North American popula- Asia) had been considered a synonym of T. meticulosalis, tions, A. designalis is represented by the subspecies A. but now is listed in modern literature as a separate species. designalis monstralis, while A. designalis designalis was The taxonomic status of T. meticulosalis populations in originally described from South America. Additional work Africa, where it is listed from Kenya, South Africa, Uganda, on the genus, including new methods such as the DNA and Sierra Leone, is unclear. -
The Medicinal Analysis Flora of Native North America An
Jownal of ~~hnop~~~o~~, 31(1991) 1 - 42 Elsevier Scientific Publishers Ireland Ltd. THE MEDICINAL FLORA OF NATIVE NORTH AMERICA AN ANALYSIS DANIEL E. MOE~AN BepaHmexf of Behaviorat Sciences, Un&ekty o~~~h~gon-~ea~bo~ DeurboPn, MI IiX5.A.I (Accepted August 4, 1990) Summary This paper describes an analysis of the plants of North America which have been used medicinally by Native North Americans. A method using regression residuals is developed for analyzing large quantities of data, div- ided into subgroups of varying sorts and sizes. The analysis shows that the medicinal species utilized by Native North Americans are distributed in a highly non-random fashion across subclasses and families as well as across groups defined in terms of growth habit and life pattern. This distribution makes sense in terms of both the defensive chemistry and the “complexity” of plants. In~~uction: Analyzing e~o~~~ data According to an authoritative source (Shetler and Skog, 19781there are, in North America north of the Rio Grande, 16,270 species of vascular plants. According to another recent source, Me~~~~~ Plants of Native Americu (Moerman, 19861, 2147 of them were used medicinally by 123 Native North American (hereafter termed “Native American”) societies in 17,624 different ways. What is the relation of the smaller set to the larger? Those familiar with medical ethnobotany will note that this is an unusual question and an unusual approach. The more typical approach involves dealing with different species seriatim, assessing the ethnological and physiological character of particular taxa. The attempt is made here to do something different, namely, to analyze the dimensions of the totality of Native American medicinal plants; it is to analyze the medicinal flora of the continent as one thing, not 2000 or 17,000 things. -
Nitrogen-Fixing Tree Abundance in Higher-Latitude North America Is Not Constrained by Diversity
This is a repository copy of Nitrogen-fixing tree abundance in higher-latitude North America is not constrained by diversity. White Rose Research Online URL for this paper: http://eprints.whiterose.ac.uk/116668/ Version: Accepted Version Article: Menge, DNL, Batterman, SA, Liao, W et al. (3 more authors) (2017) Nitrogen-fixing tree abundance in higher-latitude North America is not constrained by diversity. Ecology Letters, 20 (7). pp. 842-851. ISSN 1461-023X https://doi.org/10.1111/ele.12778 (c) 2017, Wiley. This is the peer reviewed version of the following article: Menge, DNL, Batterman, SA, Liao, W et al. (3 more authors) (2017) Nitrogen-fixing tree abundance in higher-latitude North America is not constrained by diversity. Ecology Letters , which has been published in final form at https://dx.doi.org/10.1111/ele.12778. This article may be used for non-commercial purposes in accordance with Wiley Terms and Conditions for Self-Archiving. Reuse Items deposited in White Rose Research Online are protected by copyright, with all rights reserved unless indicated otherwise. They may be downloaded and/or printed for private study, or other acts as permitted by national copyright laws. The publisher or other rights holders may allow further reproduction and re-use of the full text version. This is indicated by the licence information on the White Rose Research Online record for the item. Takedown If you consider content in White Rose Research Online to be in breach of UK law, please notify us by emailing [email protected] including the URL of the record and the reason for the withdrawal request. -
Erythrina Spp., Fabaceae) in the Ancient Gardens of Naples (Campania, Italy)
plants Article DNA Barcoding to Confirm the Morphological Identification of the Coral Trees (Erythrina spp., Fabaceae) in the Ancient Gardens of Naples (Campania, Italy) Adriana De Luca 1 ID , Giancarlo Sibilio 2,* ID , Paolo De Luca 2 and Emanuele Del Guacchio 2 1 Dipartimento di Medicina Veterinaria e Produzioni Animali, Università degli Studi di Napoli Federico II, Via Delpino 1, 80137 Napoli, Italy; [email protected] 2 Botanical Garden of Naples, Università degli Studi di Napoli Federico II, Via Foria 223, 80139 Napoli, Italy; [email protected] (P.D.L.); [email protected] (E.D.G.) * Correspondence: [email protected] Received: 4 April 2018; Accepted: 4 June 2018; Published: 6 June 2018 Abstract: The coral trees (genus Erythrina) have been fostering great interest among the botanists and gardeners of Naples, since their arrival in Europe in the second half of the 18th century. Numerous species were present in the royal and private botanical gardens of the region, but their number has decreased today. The purpose of this work was to verify which species occur nowadays in the public areas of Naples and associate them with the historical information about their introduction. The identification was carried out also by molecular methods, by means of sequencing nuclear and chloroplast DNA markers. The comparison of the sequences obtained for the specimens present in Naples with those present in the literature, together with a morphological examination, allowed us to identify with accuracy the species anciently introduced or nowadays cultivated in Naples. Keywords: botanical garden; botanical history; Dehnhardt; DNA barcoding; urban gardens 1. -
Vascular Plants of Williamson County Clinopodium Brownei − SHELL-FLOWER, CREEPING CHARLIE [Lamiaceae]
Vascular Plants of Williamson County Clinopodium brownei − SHELL-FLOWER, CREEPING CHARLIE [Lamiaceae] Clinopodium brownei (Swartz) Kuntze (syn. Micromeria brownei var. pilosiuscula), SHELL-FLOWER, CREEPING CHARLIE. Aquatic perennial herb, clonal, stolon-bearing, fibrous-rooted, emergent or submersed, not rosetted, several-stemmed from principal nodes at base, mat-forming, with procumbent, spreading, and ascending shoots, in range to 15 cm tall; gynodioecious (= different clones); shoots with only cauline leaves, axes and often leaves pilose and short-pilose and having sessile glandular hairs, faintly aromatic when crushed; adventitious roots at nodes of lower stems (submersed or in wet substrate). Stems: 4-sided, in range 1 mm diameter, light green, edges = ridges having pilose hairs, short-pilose across each node. Leaves: opposite decussate, simple with low teeth, petiolate connected with a pair of ledges across each node, without stipules; petiole crescent-shaped in ×-section, < 4 mm long; blade ovate, in range < 5−15 × < 4−12 mm, cordate at base, low-crenate on margins, obtuse at tip, pinnately veined having 3 or 5 veins at base and principal veins slightly raised on lower surface, on clone surfaces pilose or glabrous and having sunken sessile glandular hairs. Inflorescence: solitary, axillary flower 2 per node, lacking bracts; pedicel slender cylindric, at anthesis spreading often with bend upward and 4−5 mm long aging to 12 mm long and recurved, green, inconspicuously puberulent. Flower: in range pistillate (expect also bisexual), -
Attracting Hummingbirds to the Garden
Attracting Hummingbirds To The Garden Ruby - throated ArchilochusHummingbird colubris Many newcomers to Florida gardening are disappointed in their attempts to attract hummingbirds since many other parts of the country have numbers of species and large populations. In Florida we have only one species that is resident here and many of these also migrate south for the winter. The Ruby-Throated Hummingbird is normally seen throughout the spring and summer and a number of plant species are particularly sought after by these tiny birds. We also experience some “accidental” occurrences as species not normally found here wander through Florida during their normal migration south. These include the Rufous Hummingbird, Black-Chinned Hummingbird, Cuban Emerads and Bahama Woodstar. Hummingbirds live primarily on nectar from flowers as well as small insects and spiders. They normally feed as they hover on the wing, their tiny wings beating so fast they cannot be seen. Because of their fast metabolic rate, they must eat a great deal so will frequently stay in your garden for a while if they find a suitable food source. They nest in Florida during the summer, building tiny cup-like nests out of lichens, lining it with various kinds of plant fibers and down. Two tiny eggs the size of peas are produced. Males may be distinguished from females by a bright red patch of feathers under the throat while females and immature have gray throats. In Florida we have a very large sphinx moth that is often confused with hummingbirds. These moths have long pointed mouthparts that let them pump nectar from the base of a tubular flower.