Ferns of the Wallowa Mountains, Oregon by Edward R
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"National List of Vascular Plant Species That Occur in Wetlands: 1996 National Summary."
Intro 1996 National List of Vascular Plant Species That Occur in Wetlands The Fish and Wildlife Service has prepared a National List of Vascular Plant Species That Occur in Wetlands: 1996 National Summary (1996 National List). The 1996 National List is a draft revision of the National List of Plant Species That Occur in Wetlands: 1988 National Summary (Reed 1988) (1988 National List). The 1996 National List is provided to encourage additional public review and comments on the draft regional wetland indicator assignments. The 1996 National List reflects a significant amount of new information that has become available since 1988 on the wetland affinity of vascular plants. This new information has resulted from the extensive use of the 1988 National List in the field by individuals involved in wetland and other resource inventories, wetland identification and delineation, and wetland research. Interim Regional Interagency Review Panel (Regional Panel) changes in indicator status as well as additions and deletions to the 1988 National List were documented in Regional supplements. The National List was originally developed as an appendix to the Classification of Wetlands and Deepwater Habitats of the United States (Cowardin et al.1979) to aid in the consistent application of this classification system for wetlands in the field.. The 1996 National List also was developed to aid in determining the presence of hydrophytic vegetation in the Clean Water Act Section 404 wetland regulatory program and in the implementation of the swampbuster provisions of the Food Security Act. While not required by law or regulation, the Fish and Wildlife Service is making the 1996 National List available for review and comment. -
California's Native Ferns
CALIFORNIA’S NATIVE FERNS A survey of our most common ferns and fern relatives Native ferns come in many sizes and live in many habitats • Besides living in shady woodlands and forests, ferns occur in ponds, by streams, in vernal pools, in rock outcrops, and even in desert mountains • Ferns are identified by producing fiddleheads, the new coiled up fronds, in spring, and • Spring from underground stems called rhizomes, and • Produce spores on the backside of fronds in spore sacs, arranged in clusters called sori (singular sorus) Although ferns belong to families just like other plants, the families are often difficult to identify • Families include the brake-fern family (Pteridaceae), the polypody family (Polypodiaceae), the wood fern family (Dryopteridaceae), the blechnum fern family (Blechnaceae), and several others • We’ll study ferns according to their habitat, starting with species that live in shaded places, then moving on to rock ferns, and finally water ferns Ferns from moist shade such as redwood forests are sometimes evergreen, but also often winter dormant. Here you see the evergreen sword fern Polystichum munitum Note that sword fern has once-divided fronds. Other features include swordlike pinnae and round sori Sword fern forms a handsome coarse ground cover under redwoods and other coastal conifers A sword fern relative, Dudley’s shield fern (Polystichum dudleyi) differs by having twice-divided pinnae. Details of the sori are similar to sword fern Deer fern, Blechnum spicant, is a smaller fern than sword fern, living in constantly moist habitats Deer fern is identified by having separate and different looking sterile fronds and fertile fronds as seen in the previous image. -
Global Research on Ultramafic (Serpentine) Ecosystems
van der Ent, et al. 2015. Published in Australian Journal of Botany. 63:1-16. Global research on ultramafic (serpentine) ecosystems (8th International Conference on Serpentine Ecology in Sabah, Malaysia): a summary and synthesis A,E,H B,C D E Antony van der Ent , Nishanta Rajakaruna , Robert Boyd , Guillaume Echevarria , Rimi RepinF and Dick WilliamsG ACentre for Mined Land Rehabilitation, Sustainable Minerals Institute, The University of Queensland, Qld, Australia. BCollege of the Atlantic, 105 Eden Street, ME 04609, USA. CEnvironmental Sciences and Management, North-West University, Private Bag X6001, Potchefstroom, 2520, South Africa. DDepartment of Biological Sciences, 101 Rouse Life Sciences Bldg, Auburn University, AL 36849, USA. ELaboratoire Sols et Environnement, UMR 1120, Université de Lorraine – INRA, France. FSabah Parks, KK Times Square, Coastal Highway, 88100 Kota Kinabalu, Malaysia. GAustralian Journal of Botany, CSIRO Tropical Ecosystems Research Centre, Australia. HCorresponding author. Email: [email protected] Abstract. Since 1991, researchers from approximately 45 nations have participated in eight International Conferences on Serpentine Ecology (ICSE). The Conferences are coordinated by the International Serpentine Ecology Society (ISES), a formal research society whose members study geological, pedological, biological and applied aspects of ultramafic (serpentine) ecosystems worldwide. These conferences have provided an international forum to discuss and synthesise multidisciplinary research, and have provided opportunities for scientists in distinct fields and from different regions of the world to conduct collaborative and interdisciplinary research. The 8th ICSE was hosted by Sabah Parks in Malaysia, on the island of Borneo, and attracted the largest delegation to date, 174 participants from 31 countries. This was the first time an ICSE was held in Asia, a region that hosts some of the world’s most biodiverse ultramafic ecosystems. -
Genetic Differentiation and Polyploid Formation Within the Cryptogramma Crispa Complex (Polypodiales: Pteridaceae)
Turkish Journal of Botany Turk J Bot (2016) 40: 231-240 http://journals.tubitak.gov.tr/botany/ © TÜBİTAK Research Article doi:10.3906/bot-1501-54 Genetic differentiation and polyploid formation within the Cryptogramma crispa complex (Polypodiales: Pteridaceae) Jordan METZGAR*, Mackenzie STAMEY, Stefanie ICKERT-BOND Herbarium (ALA), University of Alaska Museum of the North and Department of Biology and Wildlife, University of Alaska Fairbanks, Fairbanks, AK, USA Received: 28.01.2015 Accepted/Published Online: 14.07.2015 Final Version: 08.04.2016 Abstract: The tetraploid fern Cryptogramma crispa (L.) R.Br. ex Hook. is distributed across alpine and high latitude regions of Europe and western Asia and is sympatric with the recently described octoploid C. bithynica S.Jess., L.Lehm. & Bujnoch in north-central Turkey. Our analysis of a 6-region plastid DNA sequence dataset comprising 39 accessions of Cryptogramma R.Br., including 14 accessions of C. crispa and one accession of C. bithynica, revealed a deep genetic division between the accessions of C. crispa from western, northern, and central Europe and the accessions of C. crispa and C. bithynica from Turkey and the Caucasus Mountains. This legacy likely results from Pleistocene climate fluctuations and appears to represent incipient speciation between the eastern and western clades. These plastid DNA sequence data also demonstrate that the western clade of C. crispa, specifically the western Asian clade, is the maternal progenitor of C. bithynica. Our analysis of DNA sequence data from the biparentally inherited nuclear locus gapCp supports an autopolyploid origin of C. bithynica, with C. crispa as the sole progenitor. Key words: Cryptogramma, ferns, autopolyploidy, phylogeography, glacial refugium 1. -
Species at Risk on Department of Defense Installations
Species at Risk on Department of Defense Installations Revised Report and Documentation Prepared for: Department of Defense U.S. Fish and Wildlife Service Submitted by: January 2004 Species at Risk on Department of Defense Installations: Revised Report and Documentation CONTENTS 1.0 Executive Summary..........................................................................................iii 2.0 Introduction – Project Description................................................................. 1 3.0 Methods ................................................................................................................ 3 3.1 NatureServe Data................................................................................................ 3 3.2 DOD Installations............................................................................................... 5 3.3 Species at Risk .................................................................................................... 6 4.0 Results................................................................................................................... 8 4.1 Nationwide Assessment of Species at Risk on DOD Installations..................... 8 4.2 Assessment of Species at Risk by Military Service.......................................... 13 4.3 Assessment of Species at Risk on Installations ................................................ 15 5.0 Conclusion and Management Recommendations.................................... 22 6.0 Future Directions............................................................................................. -
Ferns of the National Forests in Alaska
Ferns of the National Forests in Alaska United States Forest Service R10-RG-182 Department of Alaska Region June 2010 Agriculture Ferns abound in Alaska’s two national forests, the Chugach and the Tongass, which are situated on the southcentral and southeastern coast respectively. These forests contain myriad habitats where ferns thrive. Most showy are the ferns occupying the forest floor of temperate rainforest habitats. However, ferns grow in nearly all non-forested habitats such as beach meadows, wet meadows, alpine meadows, high alpine, and talus slopes. The cool, wet climate highly influenced by the Pacific Ocean creates ideal growing conditions for ferns. In the past, ferns had been loosely grouped with other spore-bearing vascular plants, often called “fern allies.” Recent genetic studies reveal surprises about the relationships among ferns and fern allies. First, ferns appear to be closely related to horsetails; in fact these plants are now grouped as ferns. Second, plants commonly called fern allies (club-mosses, spike-mosses and quillworts) are not at all related to the ferns. General relationships among members of the plant kingdom are shown in the diagram below. Ferns & Horsetails Flowering Plants Conifers Club-mosses, Spike-mosses & Quillworts Mosses & Liverworts Thirty of the fifty-four ferns and horsetails known to grow in Alaska’s national forests are described and pictured in this brochure. They are arranged in the same order as listed in the fern checklist presented on pages 26 and 27. 2 Midrib Blade Pinnule(s) Frond (leaf) Pinna Petiole (leaf stalk) Parts of a fern frond, northern wood fern (p. -
TO KNOW in Re On
TO KNOW in re on FEDERAL COOPERATIVE EXTENSION SERVICE OREGON STATE COLLEGE,CORVALLIS Cooperative Extension work in Agriculture and Home Economics, F. E. Price, director. Oregon State College and the United States Department of Agriculture cooperating. Printed and distributed in furtherance of Acts of Congress of May 8 and June 30, 1914. Extension Bulletin 785 September 1959 FERN TERMS Evergreen. Said of plants whose leaves re- Pinna. A primary division of a fern leaf. main green at least until new ones are formed, (The plural of pinna is pinnae.) and of leaves that remain green more than a year. Pinnule. A secondary division of a fern leaf. Fertile leaf. A leaf that bears fruit dots or spore cases. Rhizoid. Simple hair-like structures of a Frond. The leaf of a fern. prothallium, functioning as roots. Fruit band. A line of spore cases, instead Rhizone. A somewhat horizontal and us- of fruit dots, appearing on the margin or un- ually elongated creeping subterranean stem. der surface of fertile leaves of some ferns. Rootstock. Rhizome. Stem. Fruit dots. Small groups of spore cases appearing on the underside of fertile leaves. Sorus. A cluster of sporangia. (Plural of Habitat. The typicalsituation under sorus is son.) which a plant grows. Sporangia. (Spore cases.) The vessels Indusium. The shield-like cover of a where spores are formed. sorus. Spore. The small nonsexual fruit of the Leaflet. One of the divisions of a com- fern. A cell that functions as a seed. pound leaf. Midvein. The central and most prominent Stipe. Leafstalk. vein of a pinna or pinnule. -
Bibliography of Isoetes
BIBLIOGRAPHY OF ISOETES ALLEN, B.M. 1975. A note on the distribution of Isoetes in the Cadiz Province, Spain. Fern Gaz. (U.K.) 11 (2-3): 163-164 (1975). ALONSO, PAZ, E. 1989. Notas sobre plantas nuevas o interesantes para la flora Uruguaya: 1. (Notes on new or interesting plants for the Uruguayan flora: 1.) Comun. Bot. Mus. Hist. Nat. Montevideo 5 (91): 1-4 (1989) - Isoetes pp.2-3 ALSTON, A.H.G. 1982. Isoetaceae: 1. In Steenis, C.G.G.J. van, Holttum, R. E., eds. Flora Malesiana, series 2. Pteridophytes, volume 1. The Hague, Martinus Nijhoff, Dr. W. Junk Publ. 62-64 (1982)- illus., chrom. nos., key. ANDREIS, C., RODONDI, G. 1987. Alcune stazioni di Isoetes echinospora Dur. nel Bresciano e osservazioni al SEM delle spore delle Isoetes della flora Italica. Natura Bresciana no.23: 119-130 (1986 publ. 1987) - illus., maps. 4, ANTHONY, N.C., & E.A. SCHELPE, 1985. Two new taxa and a new combination in southern African Pteridophyta. Bothalia, 15 (3 & 4): 554-555 (1985) ARREGUIN-SANCHEZ, M., 1986. Nuevos registros y taxa interesantes de pteridofitas del Valle de Mexico. (Isoetaceae, Psilotaceae y Selaginellaceae) Phytologia 59 (7): 451-453 (1986) ASH, S., & K.B. PIGG. 1991. A new Jurassic Isoetites (Isoetales) from the Wallowa Terrane in Hells Canyon Oregon and Idaho. Amer. J. Bot. 78: 1636-1642. BAJPAI, U., & H.K. MAHESHWARI,1985. EM studies on the megaspores of Isoetes coromandelina. Phytomorphology, 34 (1-4): 226-231 (1984 publ. 1985) - illus. BALDWIN, W.K.W. 1933. The organization of the young sporophyte of Isoetes engelmanni, A. -
Fall 2001 HARDY FERN FOUNDATION QUARTERLY Marlin Rickard to Lecture
THE HARDY FERN FOUNDATION P.O. Box 166 Medina, WA 98039-0166 (206) 870-5363 Web site: www.hardvfems.org The Hardy Fern Foundation was founded in 1989 to establish a comprehen¬ sive collection of the world’s hardy ferns for display, testing, evaluation, public education and introduction to the gardening and horticultural community. Many rare and unusual species, hybrids and varieties are being propagated from spores and tested in selected environments for their different degrees of hardiness and ornamental garden value. The primary fern display and test garden is located at, and in conjunction with, The Rhododendron Species Botanical Garden at the Weyerhaeuser Corpo¬ rate Headquarters, in Federal Way, Washington. Satellite fem gardens are at the Stephen Austin Arboretum, Nacogdoches, Texas, Birmingham Botanical Gardens, Birmingham, Alabama, California State University at Sacramento, Sacramento, California, Coastal Maine Botanical Garden, Boothbay, Maine, Dallas Arboretum, Dallas, Texas, Denver Botanic Gardens. Denver, Colorado, Georgeson Botanical Garden, University of Alaska, Fairbanks, Alaska, Harry P. Leu Garden, Orlando, Florida, Inniswood Metro Gardens, Columbus, Ohio, Lewis Ginter Botanical Garden, Richmond, Virginia, New York Botanical Garden, Bronx, New York, and Strybing Arboretum, San Francisco, California. The fem display gardens are at Bainbridge Island Library, Bainbridge Island, WA, Lakewold, Tacoma, Washington, Les Jardins de Metis, Quebec, Canada, University of Northern Colorado, Greeley, Colorado, and Whitehall Historic Home and Garden, Louisville, KY. Hardy Fem Foundation members participate in a spore exchange, receive a quarterly newsletter and have first access to ferns as they are ready for distribution. Cover Design by Willanna Bradner HARDY FERN FOUNDATION QUARTERLY THE HARDY FERN FOUNDATION Quarterly Volume 11 • No. -
Botrychium Paradoxum (Peculiar Moonwort) Predicted Suitable Habitat Modeling
Botrychium paradoxum (Peculiar Moonwort) Predicted Suitable Habitat Modeling Distribution Status: Present State Rank: S3 (Species of Concern) Global Rank: G3G4 Modeling Overview Created by: Braden Burkholder Creation Date: August 12, 2020 Evaluator: Scott Mincemoyer Evaluation Date: December 1, 2020 Inductive Model Goal: To predict the distribution and relative suitability of general habitat for Botrychium paradoxum at large spatial scales across its presumed range in Montana. Inductive Model Performance: The model appears to somewhat adequately reflect the distribution and relative suitability of general habitat for Botrychium paradoxum at larger spatial scales across its presumed range in Montana. Evaluation metrics indicate an acceptable model fit and the delineation of habitat suitability classes is reasonably well supported by the data. Model somewhat overpredicts suitable habitat in that areas of alpine in several mountains ranges is included. Otherwise, model appears reasonable given that the target species is known to occur in a variety of habitats. The model is presented as a reference, but more observation records, site-specific data, and/or other environmental layers may be needed to improve performance. Inductive Model Output: http://mtnhp.org/models/files/Botrychium_paradoxum_PPOPH010J0_20200812_modelHex.lpk Suggested Citation: Montana Natural Heritage Program. 2020. Botrychium paradoxum (Peculiar Moonwort) predicted suitable habitat model created on August 12, 2020. Montana Natural Heritage Program, Helena, MT. 17 pp. Montana Field Guide Species Account: http://fieldguide.mt.gov/speciesDetail.aspx?elcode=PPOPH010J0 Species Model Page: http://mtnhp.org/models/?elcode=PPOPH010J0 page 1 of 17 Botrychium paradoxum (Peculiar Moonwort) Predicted Suitable Habitat Modeling August 12, 2020 Inductive Modeling Model Limitations and Suggested Uses This model is based on statewide biotic and abiotic environmental layers originally mapped at a variety of spatial scales and standardized to 90×90-meter raster pixels. -
Plant Propagation Protocol –Cryptogramma Cascadensis ESRM 412 – Native Plant Production Ezekiel Barkley Spring 2007
Plant Propagation Protocol –Cryptogramma cascadensis ESRM 412 – Native Plant Production Ezekiel Barkley Spring 2007 TAXONOMY Family Names Family Scientific Name: Pteridaceae Family Common Name: Maidenhair Fern Scientific Names Genus: Cryptogramma Species: cascadensis Species Authority: E.R. Alverson Variety: Sub-species: Cultivar: Authority for Variety/Sub-species: Common Synonym(s) Genus: Cryptogramma, Aspidotis Species: acrostichoides, densa Species Authority: Variety: Sub-species: Cultivar: Authority for Variety/Sub-species: Common Name(s): Cascade rockbrake Species Code (as per USDA Plants CRCA23 database): GENERAL INFORMATION General Distribution (geographical West Coast of N. America including Idaho and range (states it occurs in), Montana (plants.usda.gov) ecosystems, etc): Talus slopes and cliff crevices, often on igneous rocks, typically in relatively mesic subalpine habitats. (efloras.org) Climate and elevation range Mountain climate and range. 900-3500m Local habitat and abundance; may Most commonly found in Wenatchee Mountains of include commonly associated WA (Kruckeberg 1996) species Plant strategy type / successional Requires protection of rock overhang. When crown is stage (stress-tolerator, competitor, protected from winter sogginess and a cool root-run is weedy/colonizer, seral, late provided, this evergreen fern excels as a rock garden successional) subject. (Kruckeberg 1996) Perennial (plants.usda.gov) PROPAGATION DETAILS Ecotype (this is meant primarily for experimentally derived protocols, and is a description of -
Adiantum Viridimontanum, Aspidotis Densa, Minuartia Marcescens, and Symphyotrichum Rhiannon: Additional Serpentine Endemics from Eastern North America
Soil and Biota of Serpentine: A World View 2009 Northeastern Naturalist 16(Special Issue 5):111–120 Adiantum viridimontanum, Aspidotis densa, Minuartia marcescens, and Symphyotrichum rhiannon: Additional Serpentine Endemics from Eastern North America Tanner Harris1 and Nishanta Rajakaruna2,3,* Abstract - Serpentine outcrops around the world are known to harbor disproportion- ately high rates of plant endemism. Remarkable cases of serpentine endemism occur in New Caledonia and Cuba, with 3178 and 920 endemic taxa, respectively, found solely on serpentine. Despite the patchy occurrence of serpentine in eastern North America from Québec and Newfoundland south to Alabama, only one taxon, Cerastium veluti- num var. villosissimum, has been broadly recognized as a serpentine endemic for the region. Based on reports in the literature, we suggest that Adiantum viridimontanum, Minuartia marcescens, and Symphyotrichum rhiannon be considered endemic to serpentine soils from the east coast of North America. Aspidotis densa, with several disjunct populations on and off serpentine in western North America, is known solely from serpentine soils where it occurs in eastern North America and should be consid- ered endemic to the substrate there. The geobotany of eastern North America in general is poorly understood, and additional taxonomic studies on the region’s unique geologic substrates will likely yield further edaphic endemics. Introduction Narrow endemism can result from any number of biological and en- vironmental interactions. However, within a regional climate, geological discontinuities, both topographic and geochemical, are the most common and striking infl uences of narrow endemism (Kruckeberg 1986, Kruck- eberg and Rabinowitz 1985). Among the endemic species resulting from geological discontinuities are edaphic endemics, those species restricted to chemically and/or physically unique soils (Rajakaruna and Boyd 2008).