Notes on the Treatment of Cyperaceae for Flora Iranica
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Introduction to Common Native & Invasive Freshwater Plants in Alaska
Introduction to Common Native & Potential Invasive Freshwater Plants in Alaska Cover photographs by (top to bottom, left to right): Tara Chestnut/Hannah E. Anderson, Jamie Fenneman, Vanessa Morgan, Dana Visalli, Jamie Fenneman, Lynda K. Moore and Denny Lassuy. Introduction to Common Native & Potential Invasive Freshwater Plants in Alaska This document is based on An Aquatic Plant Identification Manual for Washington’s Freshwater Plants, which was modified with permission from the Washington State Department of Ecology, by the Center for Lakes and Reservoirs at Portland State University for Alaska Department of Fish and Game US Fish & Wildlife Service - Coastal Program US Fish & Wildlife Service - Aquatic Invasive Species Program December 2009 TABLE OF CONTENTS TABLE OF CONTENTS Acknowledgments ............................................................................ x Introduction Overview ............................................................................. xvi How to Use This Manual .................................................... xvi Categories of Special Interest Imperiled, Rare and Uncommon Aquatic Species ..................... xx Indigenous Peoples Use of Aquatic Plants .............................. xxi Invasive Aquatic Plants Impacts ................................................................................. xxi Vectors ................................................................................. xxii Prevention Tips .................................................... xxii Early Detection and Reporting -
C6 Noncarice Sedge
CYPERACEAE etal Got Sedge? Part Two revised 24 May 2015. Draft from Designs On Nature; Up Your C 25 SEDGES, FOINS COUPANTS, LAÎCHES, ROUCHES, ROUCHETTES, & some mostly wet things in the sedge family. Because Bill Gates has been shown to eat footnotes (burp!, & enjoy it), footnotes are (italicized in the body of the text) for their protection. Someone who can spell caespitose only won way has know imagination. Much of the following is taken verbatim from other works, & often not credited. There is often not a way to paraphrase or rewrite habitat or descriptive information without changing the meaning. I am responsible for any mistakes in quoting or otherwise. This is a learning tool, & a continuation of an idea of my friend & former employer, Jock Ingels, LaFayette Home Nursery, who hoped to present more available information about a plant in one easily accessible place, instead of scattered though numerous sources. This is a work in perpetual progress, a personal learning tool, full uv misstakes, & written as a personal means instead of a public end. Redundant, repetitive, superfluous, & contradictory information is present. It is being consolidated. CYPERACEAE Sauergrasgewächse SEDGES, aka BIESIES, SEGGEN Formally described in 1789 by De Jussieu. The family name is derived from the genus name Cyperus, from the Greek kupeiros, meaning sedge. Many species are grass-like, being tufted, with long, thin, narrow leaves, jointed stems, & branched inflorescence of small flowers, & are horticulturally lumped with grasses as graminoids. Archer (2005) suggests the term graminoid be used for true grasses, & cyperoid be used for sedges. (If physical anthropologists have hominoids & hominids, why don’t we have graminoids & graminids?) There are approximately 104 genera, 4 subfamilies, 14 tribes, & about 5000 species worldwide, with 27 genera & 843 species in North America (Ball et al 2002). -
Ficha Catalográfica Online
UNIVERSIDADE ESTADUAL DE CAMPINAS INSTITUTO DE BIOLOGIA – IB SUZANA MARIA DOS SANTOS COSTA SYSTEMATIC STUDIES IN CRYPTANGIEAE (CYPERACEAE) ESTUDOS FILOGENÉTICOS E SISTEMÁTICOS EM CRYPTANGIEAE CAMPINAS, SÃO PAULO 2018 SUZANA MARIA DOS SANTOS COSTA SYSTEMATIC STUDIES IN CRYPTANGIEAE (CYPERACEAE) ESTUDOS FILOGENÉTICOS E SISTEMÁTICOS EM CRYPTANGIEAE Thesis presented to the Institute of Biology of the University of Campinas in partial fulfillment of the requirements for the degree of PhD in Plant Biology Tese apresentada ao Instituto de Biologia da Universidade Estadual de Campinas como parte dos requisitos exigidos para a obtenção do Título de Doutora em Biologia Vegetal ESTE ARQUIVO DIGITAL CORRESPONDE À VERSÃO FINAL DA TESE DEFENDIDA PELA ALUNA Suzana Maria dos Santos Costa E ORIENTADA PELA Profa. Maria do Carmo Estanislau do Amaral (UNICAMP) E CO- ORIENTADA pelo Prof. William Wayt Thomas (NYBG). Orientadora: Maria do Carmo Estanislau do Amaral Co-Orientador: William Wayt Thomas CAMPINAS, SÃO PAULO 2018 Agência(s) de fomento e nº(s) de processo(s): CNPq, 142322/2015-6; CAPES Ficha catalográfica Universidade Estadual de Campinas Biblioteca do Instituto de Biologia Mara Janaina de Oliveira - CRB 8/6972 Costa, Suzana Maria dos Santos, 1987- C823s CosSystematic studies in Cryptangieae (Cyperaceae) / Suzana Maria dos Santos Costa. – Campinas, SP : [s.n.], 2018. CosOrientador: Maria do Carmo Estanislau do Amaral. CosCoorientador: William Wayt Thomas. CosTese (doutorado) – Universidade Estadual de Campinas, Instituto de Biologia. Cos1. Savanas. 2. Campinarana. 3. Campos rupestres. 4. Filogenia - Aspectos moleculares. 5. Cyperaceae. I. Amaral, Maria do Carmo Estanislau do, 1958-. II. Thomas, William Wayt, 1951-. III. Universidade Estadual de Campinas. Instituto de Biologia. IV. Título. -
National List of Vascular Plant Species That Occur in Wetlands 1996
National List of Vascular Plant Species that Occur in Wetlands: 1996 National Summary Indicator by Region and Subregion Scientific Name/ North North Central South Inter- National Subregion Northeast Southeast Central Plains Plains Plains Southwest mountain Northwest California Alaska Caribbean Hawaii Indicator Range Abies amabilis (Dougl. ex Loud.) Dougl. ex Forbes FACU FACU UPL UPL,FACU Abies balsamea (L.) P. Mill. FAC FACW FAC,FACW Abies concolor (Gord. & Glend.) Lindl. ex Hildebr. NI NI NI NI NI UPL UPL Abies fraseri (Pursh) Poir. FACU FACU FACU Abies grandis (Dougl. ex D. Don) Lindl. FACU-* NI FACU-* Abies lasiocarpa (Hook.) Nutt. NI NI FACU+ FACU- FACU FAC UPL UPL,FAC Abies magnifica A. Murr. NI UPL NI FACU UPL,FACU Abildgaardia ovata (Burm. f.) Kral FACW+ FAC+ FAC+,FACW+ Abutilon theophrasti Medik. UPL FACU- FACU- UPL UPL UPL UPL UPL NI NI UPL,FACU- Acacia choriophylla Benth. FAC* FAC* Acacia farnesiana (L.) Willd. FACU NI NI* NI NI FACU Acacia greggii Gray UPL UPL FACU FACU UPL,FACU Acacia macracantha Humb. & Bonpl. ex Willd. NI FAC FAC Acacia minuta ssp. minuta (M.E. Jones) Beauchamp FACU FACU Acaena exigua Gray OBL OBL Acalypha bisetosa Bertol. ex Spreng. FACW FACW Acalypha virginica L. FACU- FACU- FAC- FACU- FACU- FACU* FACU-,FAC- Acalypha virginica var. rhomboidea (Raf.) Cooperrider FACU- FAC- FACU FACU- FACU- FACU* FACU-,FAC- Acanthocereus tetragonus (L.) Humm. FAC* NI NI FAC* Acanthomintha ilicifolia (Gray) Gray FAC* FAC* Acanthus ebracteatus Vahl OBL OBL Acer circinatum Pursh FAC- FAC NI FAC-,FAC Acer glabrum Torr. FAC FAC FAC FACU FACU* FAC FACU FACU*,FAC Acer grandidentatum Nutt. -
Arctic and Boreal Plant Species Decline at Their Southern Range Limits in the Rocky Mountains
Ecology Letters, (2017) 20: 166–174 doi: 10.1111/ele.12718 LETTER Arctic and boreal plant species decline at their southern range limits in the Rocky Mountains Abstract Peter Lesica1,2* and Climate change is predicted to cause a decline in warm-margin plant populations, but this hypoth- Elizabeth E. Crone3 esis has rarely been tested. Understanding which species and habitats are most likely to be affected is critical for adaptive management and conservation. We monitored the density of 46 populations representing 28 species of arctic-alpine or boreal plants at the southern margin of their ranges in the Rocky Mountains of Montana, USA, between 1988 and 2014 and analysed population trends and relationships to phylogeny and habitat. Marginal populations declined overall during the past two decades; however, the mean trend for 18 dicot populations was À5.8% per year, but only À0.4% per year for the 28 populations of monocots and pteridophytes. Declines in the size of peripheral populations did not differ significantly among tundra, fen and forest habitats. Results of our study support predicted effects of climate change and suggest that vulnerability may depend on phylogeny or associated anatomical/physiological attributes. Keywords arctic-alpine plants, boreal plants, climate change, fens, marginal populations, peripheral popula- tions, range margins, Rocky Mountains. Ecology Letters (2017) 20: 166–174 2009; Sexton et al. 2009; Brusca et al. 2013), which suggests INTRODUCTION that in some cases climate does not determine a species’ range. Climate of the earth is changing at an unprecedented rate Nonetheless, most plant ecologists believe that climate is an (Jackson & Overpeck 2000; IPCC 2013) and is predicted to important factor determining geographic range limits. -
WETLAND PLANTS – Full Species List (English) RECORDING FORM
WETLAND PLANTS – full species list (English) RECORDING FORM Surveyor Name(s) Pond name Date e.g. John Smith (if known) Square: 4 fig grid reference Pond: 8 fig grid ref e.g. SP1243 (see your map) e.g. SP 1235 4325 (see your map) METHOD: wetland plants (full species list) survey Survey a single Focal Pond in each 1km square Aim: To assess pond quality and conservation value using plants, by recording all wetland plant species present within the pond’s outer boundary. How: Identify the outer boundary of the pond. This is the ‘line’ marking the pond’s highest yearly water levels (usually in early spring). It will probably not be the current water level of the pond, but should be evident from the extent of wetland vegetation (for example a ring of rushes growing at the pond’s outer edge), or other clues such as water-line marks on tree trunks or stones. Within the outer boundary, search all the dry and shallow areas of the pond that are accessible. Survey deeper areas with a net or grapnel hook. Record wetland plants found by crossing through the names on this sheet. You don’t need to record terrestrial species. For each species record its approximate abundance as a percentage of the pond’s surface area. Where few plants are present, record as ‘<1%’. If you are not completely confident in your species identification put’?’ by the species name. If you are really unsure put ‘??’. After your survey please enter the results online: www.freshwaterhabitats.org.uk/projects/waternet/ Aquatic plants (submerged-leaved species) Stonewort, Bristly (Chara hispida) Bistort, Amphibious (Persicaria amphibia) Arrowhead (Sagittaria sagittifolia) Stonewort, Clustered (Tolypella glomerata) Crystalwort, Channelled (Riccia canaliculata) Arrowhead, Canadian (Sagittaria rigida) Stonewort, Common (Chara vulgaris) Crystalwort, Lizard (Riccia bifurca) Arrowhead, Narrow-leaved (Sagittaria subulata) Stonewort, Convergent (Chara connivens) Duckweed , non-native sp. -
NJ Native Plants - USDA
NJ Native Plants - USDA Scientific Name Common Name N/I Family Category National Wetland Indicator Status Thermopsis villosa Aaron's rod N Fabaceae Dicot Rubus depavitus Aberdeen dewberry N Rosaceae Dicot Artemisia absinthium absinthium I Asteraceae Dicot Aplectrum hyemale Adam and Eve N Orchidaceae Monocot FAC-, FACW Yucca filamentosa Adam's needle N Agavaceae Monocot Gentianella quinquefolia agueweed N Gentianaceae Dicot FAC, FACW- Rhamnus alnifolia alderleaf buckthorn N Rhamnaceae Dicot FACU, OBL Medicago sativa alfalfa I Fabaceae Dicot Ranunculus cymbalaria alkali buttercup N Ranunculaceae Dicot OBL Rubus allegheniensis Allegheny blackberry N Rosaceae Dicot UPL, FACW Hieracium paniculatum Allegheny hawkweed N Asteraceae Dicot Mimulus ringens Allegheny monkeyflower N Scrophulariaceae Dicot OBL Ranunculus allegheniensis Allegheny Mountain buttercup N Ranunculaceae Dicot FACU, FAC Prunus alleghaniensis Allegheny plum N Rosaceae Dicot UPL, NI Amelanchier laevis Allegheny serviceberry N Rosaceae Dicot Hylotelephium telephioides Allegheny stonecrop N Crassulaceae Dicot Adlumia fungosa allegheny vine N Fumariaceae Dicot Centaurea transalpina alpine knapweed N Asteraceae Dicot Potamogeton alpinus alpine pondweed N Potamogetonaceae Monocot OBL Viola labradorica alpine violet N Violaceae Dicot FAC Trifolium hybridum alsike clover I Fabaceae Dicot FACU-, FAC Cornus alternifolia alternateleaf dogwood N Cornaceae Dicot Strophostyles helvola amberique-bean N Fabaceae Dicot Puccinellia americana American alkaligrass N Poaceae Monocot Heuchera americana -
The Role of Seed Bank and Germination Dynamics in the Restoration of a Tidal Freshwater Marsh in the Sacramento–San Joaquin Delta Taylor M
SEPTEMBER 2019 Sponsored by the Delta Science Program and the UC Davis Muir Institute RESEARCH The Role of Seed Bank and Germination Dynamics in the Restoration of a Tidal Freshwater Marsh in the Sacramento–San Joaquin Delta Taylor M. Sloey,1,2 Mark W. Hester2 ABSTRACT enhanced using a pre-germination cold exposure, Liberty Island, California, is a historical particularly for species of concern for wetland freshwater tidal wetland that was converted restoration. The cold stratification study showed to agricultural fields in the early 1900s. that longer durations of pre-germination cold Liberty Island functioned as farmland until an enhanced germination in Schoenoplectus acutus, accidental levee break flooded the area in 1997, but reduced germination in Schoenoplectus inadvertently restoring tidal marsh hydrology. californicus, and had no effect on Typha latifolia. Since then, wetland vegetation has naturally Overall, germination of S. californicus and recolonized part of the site. We conducted a seed S. acutus was much lower than T. latifolia. Our bank assay at the site and found that despite a findings suggest that seeding may not be an lack of germination or seedling recruitment at effective restoration technique for Schoenoplectus the site, the seed bank contained a diverse plant spp., and, to improve restoration techniques, community, indicating that the site’s continuous further study is needed to more comprehensively flooding was likely suppressing germination. understand the reproduction ecology of important Additionally, the frequency -
Evolution in Sedges (Carex, Cyperaceae)
Evolution in sedges (Carex, Cyperaceae) A. A. REZNICEK University of Michigan Herbarium, North University Building, Ann Arbor, MI 48/09, U.S.A. Received January 2, 1990 REZNICEK,A. A. 1990. Evolution in sedges (Carex, Cyperaceae). Can. J. Bot. 68: 1409-1432. Carex is the largest and most widespread genus of Cyperaceae, but evolutionary relationships within it are poorly under- stood. Subgenus Primocarex was generally thought to be artificial and derived from diverse multispicate species. Relation- ships of rachilla-bearing species of subgenus Primocarex, however, were disputed, with some authors suggesting derivation from other genera, and others believing them to be primitive. Subgenus Indocarex, with compounded inflorescence units, was thought to be primitive, with subgenera Carex and Vignea reduced and derived. However, occurrence of rachillas is not confined to a few unispicate species, as previously thought, but is widespread. The often suggested connection between Uncinia and unispicate Carex is shown, based on rachilla morphology, to be founded on incorrect interpretation OF homology. Uncinia kingii, the alleged connecting link, is, in fact, a Carex. Unispicate Carex without close multispicate relatives probably originated from independent, ancient reductions of primitive, rachilla-bearing, multispicate Carex. The highly compounded inflorescences occumng in subgenus Vignea are hypothesized to represent a primitive state in Carex, and the more specialized inflorescences in subgenus Carex derived from inflorescences of this type. The relationships of subgenus Indocurex, with its unique perigynium-like inflorescence prophylls, remain unclear. REZNICEK,A. A. 1990. Evolution in sedges (Carex, Cyperaceae). Can. J. Bot. 68 : 1409-1432. Le Carex est le genre le plus irilportant et le plus rCpandu des Cyperaceae, mais les affinites Cvolutives a I'intCrieur de ce genre sont ma1 connues. -
Schoenoplectus Pungens), in the Nisqually Delta: the Case Study of a Culturally Significant Plant
The Restoration of ka’qsxw , also known as sweetgrass (Schoenoplectus pungens), in the Nisqually Delta: The case study of a culturally significant plant by Alexandra Harwell A thesis submitted in partial fulfillment of the requirements for the degree of Master of Environmental Horticulture University of Washington 2015 Program Authorized to Offer Degree: School of Environmental and Forest Sciences !1 “That is not to say that people cannot use the productive natural resources of the Nisqually River Wa- tershed. There is room for the farmer, rancher, and forester, as well as for the Indian fisherman. How- ever, those who use these natural resources also must accept the responsibility for good stewardship. Decisions made today must insure a healthy and productive natural resource base for the future” - Billy Frank Jr. Nisqually Watershed !2 Abstract In 2009, the Brown Farm Dike was removed in the Nisqually Delta resulting in the largest estuary restoration project in the Pacific Northwest through the reconnection of 308 hectares of reclaimed farmland with the natural tidal flow of the Puget Sound. The Nisqually Indian Tribe is an important partner in the restoration effort focusing on the restoration of 52 hectares on the east side of the Nisqually River. Schoenoplectus pungens is a culturally significant plant used in basketry that is common in wet- lands across the United States. Typically, factors such as edibility and material use are not con- sidered in restoration projects. The restoration of S. pungens in the Nisqually Delta is highly desired by the Nisqually Indian Tribe to reestablish a local gathering ground for this plant. -
National List of Plant Species That Occur in Wetlands
;>\ ....--'. PB89-169940 BIOLOGICAL REPORT 88(26.9) MAY 1988 NATIONAL LIST OF PLANT SPECIES THAT OCCUR IN WETLANDS: . NORTHWEST (REGION 9) " h d W"ldl"f S· In Cooperation with the National and FIS an I I e ervlce Regional Interagency Review Panels U.S. Department of the Interior REPR~EDBY u.s. DEPARTMENTOF COMMERCE NATIONAL TECHNICAL ItEORMATJON SERVICE SPRINGFIELD. VA 22161 S02n-'Ol RE?ORT DOCUMENTATION 11. REPORT NO. PAG, iBioloqical Report 88(26.9) 4. TItle arld SUbtitle National List of Plant Species That Occur in Wetiands: Northwe~t (Region 9). 7. Autllor(s) Porter B. Reed, Jr. 9. Perfonnlnc O,..nl.etton H..... • nd _ .... National Ecology Research Center U.S. Fish and Wildlife Service 11. <:omncttC) or Gr.ntCG) No. Creekside One Bldg., 2627 Redwing Rd. Fort Collins, CO 80526-2899 CGl 12. SIlO....,.;n. O,..nlUtlon H_ .rld Acid.... 13. TYIMI of Repott & Period e-Nd Department of the Interior U.S. Fish and Wildlife Service Research and Development 14. Washington, DC 20240 The National list of Plant Species That Occur in Wetlands represents the combined efforts of many biologists over the last decade to define the wetland flora of the United States. The U.S. Fish and Wildlife Service initially developed the list in order to provide an appendix to the Classification of Wetlands and Deepwater Habitats of the United States (FWS/OBS 79/31) to assist in the field identification of wetlands. Plant species that occur in wetlands, as used in the National List, are defined as species that have demonstrated an ability to achieve maturity and reproduce in an environment where all or portions of the soil within the root zone become, periodically or continuously, saturated or inundated during the growing season. -
Native Aquatic Vegetation (PDF)
Native Aquatic Vegetation Native lakeshore buffers are quickly becoming an accepted method to control erosion on the shoreline and prevent sediments and contaminates from entering the lake. These native plantings along the shoreline also provide important wildlife habitat, create privacy screening and discourage Canada Geese from your shoreyard. The addition of near-shore native aquatic plants to create an aquatic buffer zone will also provide many benefits. Naïve aquatic vegetation will not only protect your shoreline from erosion by dissipating waves, they also help stabilize sediments, and provide essential food and habitat for fish, insects and waterfowl. Common Arrowhead (Sagittaria latifolia) and Stiff Arrowhead (S. rigide) Also known as duck potato. Arrowhead grows in water depths from very shallow to 3ft. and generally reach a mature height of 2-3ft. Arrowhead provides shoreline erosion protection and food for waterfowl. Pickerelweed (Pontederia cordata) Derek Anderson Grows in water depths from a few inches to 3ft; tolerates a variety of sediments but rich mud sediments are best. Pickeralweed is a source of food for waterfowl, insects and muskrats and is important habitat for fish. Can be aggressive. Hardstem bulrush (Schoenoplectus acutus) Michael Clayton Grows in water up to 7 ft deep; prefers firm substrate with good water movement in the root zone. It is a food source for waterfowl, marsh birds and muskrats and it provides habitat for young fish and invertebrates. Grows 3-10 ft tall Softstem bulrush (Schoenoplectus tabernaemontani) Grows in water up to 6 ft deep; prefers soft substrates; does not withstand heavy wave action. Provides food for waterfowl, marsh birds, upland birds.