ANTIBACTERIAL ACTIVITY of Marsilea Quadrifolia
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2 Floating Fern (Salvinia)
2 FLOATING FERN (SALVINIA) M. H. Julien,1 T. D. Center,2 and P. W. Tipping2 1 CSIRO Entomology, Indooroopilly, Australia 2 U.S. Department of Agriculture, Agriculture Research Service, Fort Lauderdale, Florida, USA PEST STATUS OF WEED tats for vectors of human disease with serious socio- economic impacts. Salvinia molesta D. S. Mitchell is a floating fern na- In developing countries, the impact of salvinia tive to South America that in the last half of the twen- can be devastating because weed mats block the use tieth century spread widely throughout the tropics of waterways for transportation, cutting off access and subtropics, moved in part by the trade in orna- to important services, farm lands, and hunting mental plants for fish tanks and ponds. It forms dense grounds. The harm from salvinia mats to fisheries also mats over lakes and slow moving rivers and causes can be very significant to communities dependent on large economic losses and a wide range of ecological fish for local consumption (sometimes as the main problems to native species and communities. It is of source of protein) or in areas where fish sales are the interest in the United States because of its recent es- main source of cash income (Bennett, 1966; Thomas tablishment in east Texas. and Room, 1986). Salvinia also is a weed of paddy Nature of Damage rice that reduces production by competing for wa- ter, nutrients and space (Anon., 1987). Economic damage. Mats of S. molesta (referred to Ecological damage. The ability to grow very hereafter as salvinia) impede access to and use of wa- quickly (Cary and Weerts, 1983; Mitchell and Tur, terways for commercial and recreational purposes 1975; Mitchell, 1978/9; Room, 1986) and blanket wa- and degrade waterside aesthetics (Fig. -
Annexes to the Bioscore Report: a Tool to Assess the Impacts of European Community Policies on Europe’S Biodiversity
Annexes to the BioScore report: A tool to assess the impacts of European Community policies on Europe’s biodiversity Edited by Ben Delbaere Ana Nieto Serradilla Mark Snethlage (Eds) ECNC, Tilburg, the Netherlands, 2009 The report can be consulted on www.bioscore.eu and www.ecnc.org Annex 1. List of environmental variables as derived from species data availability and literature sources Annex 2. Species list with sensitivity scores Annex 3. List of references considered in BioScore for distribution ranges and ecological requirements Annex 4. Technical description of the BioScore tool and database Annex 5. Additional results from case study on afforestation in Italy Annex 6. Additional results from prospective case study of biofuel crop production Annex 7. Test with random set of species Annex 1 List of environmental variables as derived from species data availability and literature sources Environmental variables Biogeographical region Land cover ( CLC classes) Dispersal capacity Dispersal capacity minimum Dispersal capacity maximum Elevation Minimum elevation Maximum elevation Optimum elevation minimum Optimum elevation maximum Light Temperature Continentality Soil moisture Soil acidity Nitrogen availability Salt tolerance Habitat patch size (minimum area requirement) Habitat patch size minimum Habitat patch size maximum Habitat structure Population size Host/nectar plant Influence roads Permanent water surface Temporary water availability Exchange between watersheds Water flow (reduced) Water quality sensitivity Water acidification Water -
The Demographic Success of Marsilea Quadrifolia L. in a Man-Made Water Body from Danube Delta Biosphere Reservation
Transylv. Rev. Syst. Ecol. Res. 17.1 (2015), “The Wetlands Diversity” 121 THE DEMOGRAPHIC SUCCESS OF MARSILEA QUADRIFOLIA L. IN A MAN-MADE WATER BODY FROM DANUBE DELTA BIOSPHERE RESERVATION Daniela STRAT * * University of Bucharest, Faculty of Geography, Nicolae Bălcescu Boulevard 1, Bucharest, Romania, RO-010041, [email protected] DOI: 10.1515/trser-2015-0053 KEYWORDS: Marsilea quadrifolia L., Danube Delta Biosphere Reserve, demographic success, anthropogenic habitat, micro-reserve. ABSTRACT Marsilea quadrifolia L. (water clover) is a unique species from Romanian flora that belongs to the Marsileaceae family and is one of the most vulnerable plants in Europe due to the loss of its habitats. In this paper, the demographic evolution of a new M. quadrifolia population in the Danube Delta Biosphere Reserve and its natural and anthropic threats are reported. The aquatic fern, M. quadrifolia, has colonized a suitable man-made water body. After a decade of monitoring, the demographic trend is positive but the support capacity of habitat for the water clover remains limited in the long term. The population is vulnerable due to succession of vegetation and its vicinity with a human settlement. The establishment of a micro-reserve represents a suitable method to protect and maintain this threatened M. quadrifolia population. ZUSAMMENFASSUNG: Der Ansiedlungs- und Ausbreitungserfolg von Marsilea quadrifolia L. in einem anthropogenen Lebensraum des Biosphärenreservats Donaudelta. Marsilea quadrifolia L. ist die einzige Art der Familie Marsileaceae, die in der Flora Rumäniens vorkommt und aufgrund der Zerstörung ihrer natürlichen, charakteristischen Lebensräume zu den europaweit am stärksten gefährdeten Pflanzenarten gehört. In der vorliegenden Arbeit wird über den demografischen Erfolg einer Population von M. -
Maine's Lake and Stream Plants Text
Maine's Lake and Stream Plants The spreadsheet file that goes with this text file has the freshwater plants of Maine known to occur in lakes, ponds, rivers, and streams of Maine. This has no plants which are restricted to coastal brackish and estuary habitats, nor plants strictly of wetlands, bogs, marshes, vernal pools, not connected to open water. Open water means subject to the wave action of the lake, pond, river, or stream, not puddles separated from the lake, nor floating mats in lakes. But the list includes many wetland plants that may be in the water's fringe due to temporary high water, inundation, but that are normally rooted above the water's edge. The word “aquatic” is not in the title because many of the plants in the list are not true aquatic in the sense that they may be in the water, but they do not propagate or germinate in the water. The spreadsheet file has two tables. One table has the vascular plants of open-water. The second table has the vascular plants at the edge of lakes and rivers, except mosses and ferns, listed below. The plant list was consolidated from whole lake surveys (and limited river survey) of nearly 200 lakes by Don Cameron, Barre Hellquist, Arthur Haines, Craig Greene, Linda Gregory, Roberta Hill, Laurie Callahan, staff of the Maine Department of Environmental Protection, Pixie Williams, Ann Dieffenbacher-Krall, Keith Williams, email exchanges with Donald Les, and volunteers of the Maine Volunteer Lake Monitoring Program. Other lists I consulted were the book Flora of Maine, the website of the Maine Herbaria at the University of Maine, “National List of Plant Species That Occur in Wetlands: Maine” NERC-88/18.19, U. -
Forest Health Technology Enterprise Team Biological Control of Invasive
Forest Health Technology Enterprise Team TECHNOLOGY TRANSFER Biological Control Biological Control of Invasive Plants in the Eastern United States Roy Van Driesche Bernd Blossey Mark Hoddle Suzanne Lyon Richard Reardon Forest Health Technology Enterprise Team—Morgantown, West Virginia United States Forest FHTET-2002-04 Department of Service August 2002 Agriculture BIOLOGICAL CONTROL OF INVASIVE PLANTS IN THE EASTERN UNITED STATES BIOLOGICAL CONTROL OF INVASIVE PLANTS IN THE EASTERN UNITED STATES Technical Coordinators Roy Van Driesche and Suzanne Lyon Department of Entomology, University of Massachusets, Amherst, MA Bernd Blossey Department of Natural Resources, Cornell University, Ithaca, NY Mark Hoddle Department of Entomology, University of California, Riverside, CA Richard Reardon Forest Health Technology Enterprise Team, USDA, Forest Service, Morgantown, WV USDA Forest Service Publication FHTET-2002-04 ACKNOWLEDGMENTS We thank the authors of the individual chap- We would also like to thank the U.S. Depart- ters for their expertise in reviewing and summariz- ment of Agriculture–Forest Service, Forest Health ing the literature and providing current information Technology Enterprise Team, Morgantown, West on biological control of the major invasive plants in Virginia, for providing funding for the preparation the Eastern United States. and printing of this publication. G. Keith Douce, David Moorhead, and Charles Additional copies of this publication can be or- Bargeron of the Bugwood Network, University of dered from the Bulletin Distribution Center, Uni- Georgia (Tifton, Ga.), managed and digitized the pho- versity of Massachusetts, Amherst, MA 01003, (413) tographs and illustrations used in this publication and 545-2717; or Mark Hoddle, Department of Entomol- produced the CD-ROM accompanying this book. -
MARSILEACEAE 1. MARSILEA Linnaeus, Sp. Pl. 2: 1099. 1753
This PDF version does not have an ISBN or ISSN and is not therefore effectively published (Melbourne Code, Art. 29.1). The printed version, however, was effectively published on 6 June 2013. Lin, Y. X. & D. M. Johnson. 2013. Marsileaceae. Pp. 123–124 in Z. Y. Wu, P. H. Raven & D. Y. Hong, eds., Flora of China, Vol. 2–3 (Pteridophytes). Beijing: Science Press; St. Louis: Missouri Botanical Garden Press. MARSILEACEAE 蘋科 ping ke Lin Youxing (林尤兴)1; David M. Johnson2 Plants small, herbaceous, in shallow water or on shores of lakes and ponds. Rhizomes slender and creeping with a siphonostele, covered with short side-attached hairs or glabrous. Fronds linear or with 2–4 obtriangular or fan-shaped pinnae attached at top of stipe, these floating on water surface or emergent. Spores formed inside bean-shaped sporocarps attached to stipe by a short peduncle. Sporocarps containing 2–30 sori, each sorus including both megasporangia and microsporangia. Megasporangium with 1 large spore; microsporangium with 16–64 small spores. Three genera and ca. 60 species: Africa and Australia are the centers of diversity; one genus and three species in China. Lin Youxing. 2000. Marsileaceae. In: Lin Youxing, ed., Fl. Reipubl. Popularis Sin. 6(2): 336–339. 1. MARSILEA Linnaeus, Sp. Pl. 2: 1099. 1753, nom. cons. 蘋属 ping shu Lemma Adanson; Spheroidia Dulac; Zaluzianskia Necker. Fronds in deeper water with stipes lax and slender and pinnae floating upon water surface; fronds in shallow water or on land with erect stipes and pinnae oriented in various positions by action of basal pulvini; pinnae 4, obtriangular to fan-shaped, clustered at tip of stipe. -
Marsilea Quadrifolia. Retrieved From
Aquatic Plant European Waterclover; Water Shamrock I. Current Status and Distribution Marsilea quadrifolia a. Range Global/Continental Wisconsin Native Range Europe, Azores1 Not recorded in Wisconsin Figure 1: U.S and Canada Distribution Map2 Abundance/Range Widespread: Northeastern and Mid-Atlantic United Not applicable States2,3; Southeast Asia1 Locally Abundant: Slow-flowing streams, marshes, ponds, Not applicable shorelines3,4 Sparse: Undocumented Not applicable Range Expansion Date Introduced: Bantam Lake, Connecticut, 18605,6 Not applicable Rate of Spread: Rapid growth1 Not applicable Density Risk of Monoculture: High; clonal reproduction3 Unknown Facilitated By: Ability to overwinter by rhizomes3 Unknown b. Habitat Slow-flowing streams, river backwaters, marshes, ponds, shorelines, roadside ditches, bogs, rice paddy fields3,4 Tolerance Chart of tolerances: Increasingly dark color indicates increasingly optimal range4,7 Page 1 of 5 Wisconsin Department of Natural Resources – Aquatic Invasive Species Literature Review Preferences Sandy, loamy, or peaty soils; acid, neutral, and basic (alkaline) soils; moist to wet soils8; semi- or no shade c. Regulation Noxious/Regulated2: CT Minnesota Regulations: Not regulated Michigan Regulations: Not regulated Washington Regulations: Not regulated II. Establishment Potential and Life History Traits a. Life History Floating leaved aquatic to amphibious rhizomatous fern3 Fecundity High Reproduction Asexual (forms clones)5; Sexual3 Importance of Spores: Sporocarps lie dormant for decades; male and female spores cross-fertilize in wet conditions3 Vegetative: Mainly reproduces clonally3 Hybridization Three hybrids are generally recognized among New World Marsilea4 Overwintering Winter Tolerance: High Phenology: Forms overwintering underground rhizomes3 b. Establishment Climate Weather: Temperate regions; hardy to -15ºC(8) Wisconsin-Adapted: Very likely Climate Change: Increased flooding could lead to increases in and spread of M. -
Phytochemical Content of Leaf and Stem of Marsilea Quadrifolia (L.)
Open Access Journal of Plant Science and Phytopathology Research Article Phytochemical content of leaf and ISSN stem of Marsilea quadrifolia (L.) 2575-0135 Karikalan Gopalakrishnan and Rajangam Udayakumar* Post Graduate and Research Department of Biochemistry, Government Arts College (Autonomous), Kumbakonam-612001, Tamilnadu, India *Address for Correspondence: Rajangam ABSTRACT Udayakumar, Post Graduate and Research Department of Biochemistry, Government Arts College (Autonomous), Kumbakonam-612001, The present study was aimed to screen and quantify the phytochemicals by qualitative and quantitative Tamilnadu, India, E-mail: analysis in methanol and aqueous leaf and stem extracts of Marsilea quadrifolia (L.). In qualitative analysis, the [email protected] phytochemical compounds such as tannins, saponins, fl avonoids, steroids, terpenoids, triterpenoids, alkaloids, carbohydrates, proteins, anthroquinones, phenolic compounds and phytosterol were screened. Among these Submitted: 31 December 2017 phytocompounds tannins, saponins, fl avonoids, steroids, alkaloids, carbohydrates, proteins and phenolic Approved: 22 May 2017 compounds were observed in methanol and aqueous leaf and stem extracts of M. quadrifolia. Anthroquinones Published: 23 May 2017 were absent in both leaf and stem extracts of M. quadrifolia. The content of phenolic compounds 8.34±0.92 Copyright: 2017 Gopalakrishnan K, et al. This mg/g and 7.31±0.46 mg/g, fl avonoids 7.46±0.64 mg/g and 6.45±0.68 mg/g, alkaloids 6.12±0.51 mg/g and is an open access article distributed under the 5.89±0.61 mg/g, tannins 6.58±0.72 mg/g and 6.07±0.56 mg/g and saponins 5.32±0.48 mg/g and 6.30±0.58 Creative Commons Attribution License, which mg/g were determined in leaf and stem of M. -
Bryophythes (Мosses) Place of Bryophytes
Bryophythes (Мosses) Place of Bryophytes Nonvascular Plants : • do not have vascular tissue (or if present, it is very reduced) • generally small in size - grow close to the ground in moist areas • first evolved in environments that were transitional between the land and the sea • dependent on water to complete their life cycles (modern nonvascular plants too) , • able to withstand long periods of desiccation The group of Nonvascular plants include mosses, liverworts, and hornworts Bryophythes (Mosses) Main features: •Non vascular higher plants - conductive tissues missing – phloem & xylem - water is transferred from cell to cell via diffusion •Vegetative organs missing - root, stem & leaves • Development - in wet habitats •Life cycle - alternation of generations - sexually generation (gametophyte) with asexually (sporophyte); gametophyte prevailing •Reproduction - by moving cells (sperms) •Fertilization - depends of aqueous environment ? What is it Gametophyte and Sporophyte? Tokyo Palace collection (Japan) - white pine Bonsai - the oldest known specimen of Bonsai in the world (at age 500 years and above) Trends in plant evolution Life cycle in moss - alternate two generations - sporophyte and gametophyte - haploid gametophyte prevail (which we define as a moss) ! In the other groups of Vascular plants from moss above - the real plant is sporophyte, which is dominate by size and function in life cycle! Moss sporophyte produces spores, which spores germinate to form an alga-like filamentous structure called the protonema. It represents the juvenile gametophyte. The mature gametophyte consist of stem, which may be simple or branched and upright or prostrate; simple leaves, usually only a single layer of cells with no internal air spaces, often with thicker midribs; and do not have proper roots, but have threadlike rhizoids that anchor them to their substrate. -
Plant Species and Communities in Poyang Lake, the Largest Freshwater Lake in China
Collectanea Botanica 34: e004 enero-diciembre 2015 ISSN-L: 0010-0730 http://dx.doi.org/10.3989/collectbot.2015.v34.004 Plant species and communities in Poyang Lake, the largest freshwater lake in China H.-F. WANG (王华锋)1, M.-X. REN (任明迅)2, J. LÓPEZ-PUJOL3, C. ROSS FRIEDMAN4, L. H. FRASER4 & G.-X. HUANG (黄国鲜)1 1 Key Laboratory of Protection and Development Utilization of Tropical Crop Germplasm Resource, Ministry of Education, College of Horticulture and Landscape Agriculture, Hainan University, CN-570228 Haikou, China 2 College of Horticulture and Landscape Architecture, Hainan University, CN-570228 Haikou, China 3 Botanic Institute of Barcelona (IBB-CSIC-ICUB), pg. del Migdia s/n, ES-08038 Barcelona, Spain 4 Department of Biological Sciences, Thompson Rivers University, 900 McGill Road, CA-V2C 0C8 Kamloops, British Columbia, Canada Author for correspondence: H.-F. Wang ([email protected]) Editor: J. J. Aldasoro Received 13 July 2012; accepted 29 December 2014 Abstract PLANT SPECIES AND COMMUNITIES IN POYANG LAKE, THE LARGEST FRESHWATER LAKE IN CHINA.— Studying plant species richness and composition of a wetland is essential when estimating its ecological importance and ecosystem services, especially if a particular wetland is subjected to human disturbances. Poyang Lake, located in the middle reaches of Yangtze River (central China), constitutes the largest freshwater lake of the country. It harbours high biodiversity and provides important habitat for local wildlife. A dam that will maintain the water capacity in Poyang Lake is currently being planned. However, the local biodiversity and the likely effects of this dam on the biodiversity (especially on the endemic and rare plants) have not been thoroughly examined. -
SEASONAL DIVERSITY of ARBUSCULAR MYCORRHIZAL FUNGI (AMF) in MARSILEA QUADRIFOLIA PTERIDOPHYTE from NALDURG REGION of MAHARASHTRA Mane S
Mane et al RJLBPCS 2017 www.rjlbpcs.com Life Science Informatics Publications Original Research Article DOI - 10.26479/2017.0303.06 SEASONAL DIVERSITY OF ARBUSCULAR MYCORRHIZAL FUNGI (AMF) IN MARSILEA QUADRIFOLIA PTERIDOPHYTE FROM NALDURG REGION OF MAHARASHTRA Mane S. R1., S.P. Surve2, U.N. Bhale1* 1. Research Laboratory, Department of Botany, Arts, Science and Commerce College, Naldurg, Tq. Tuljapur, Dist. Osmanabad, 413602 (M.S.) India. 2. Dept of Botany, New Kohinoor College Chauka, Dist Aurangabad- 431008, MS India ABSTRACT: Mycorrhizal colonization of Marsilea quadrifolia L. plant was investigated for three seasons. Sixteen soil parameters were analyzed & results revealed that alkaline with pH of 7.71. Electrical Conductivity (EC), Phosphorus (P) Boron (B) and Sodium (Na) were very poor indicating that there are salinity and plant growth problems. The results revealed that the rejects were more in Organic Carbon (OC), Nitrogen (N), Potassium (K), Calcium (Ca), Magnesium (Mn), and sulphur (S). Zinc (Zn), Ferrous (Fe) and Molybdenum (Mo) is favorable for the plant growth. Percentage of Arbuscular mycorrhizal (AM) infection, number of resting spores and AM fungi species varied in all three seasons. Among all three seasons spore density and percentage of root colonization was found more in the winter season. Spore density was found more in winter season (425±12.33/100 g soil) and less than monsoon season (03±1.11/100g soil) followed by summer. Among AMF spore viz. Sclerocystis, Glomus, and Gigaspora genus was found but Glomus found dominant.AMF percentage of root colonization was increased in winter season (35.41±5.11%) while less in monsoon (16.66±2.11%). -
Credit River Watershed and Region of Peel Inventory Natural Areas Inventory - Volume 1 Credit River Watershed & Region of Peel September 2011
Natural Areas Credit River Watershed and Region of Peel Inventory Natural Areas Inventory - Volume 1 Credit River Watershed & Region of Peel September 2011 Credit Valley Conservation Halton/North Peel Naturalist Club Credit River Watershed and Region of Peel NAI Report – Volume 1 ACKNOWLEDGEMENTS Many people and organizations have contributed to this project. The Credit River Watershed and Region of Peel Natural Areas Inventory Project is a partnership between Credit Valley Conservation (CVC), Toronto and Region Conservation Authority (TRCA), the City of Brampton, the Region of Peel, the Halton-North Peel Naturalists’ Club (HNPNC) and the South Peel Naturalists’ Club (SPNC). This partnership has been special as each partner has contributed in its own unique way, and all contributions are important and are appreciated. This project would not have been possible without the support and guidance of these groups, including the executive members and staff that stand behind them. Over the years of this project, the members of the NAI Management Committee have contributed their time, expertise and perspective. The Management Committee members are as follows. NAI Management Committee Members Representing Sue Hayes TRCA Susan Jorgenson City of Brampton Joyce Lechasseur SPNC Bill McIlveen HNPNC Bob Morris CVC Don Morrison SPNC Audrey Oswald SPNC Scott Sampson CVC Janet Wong Region of Peel The NAI Technical Steering Committee members have provided much-appreciated insights, advice and expertise, especially in guiding this project through a thoughtful