(Filices) — Fig. I. Invenitur), Longis
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Bomfleur Et Al. (2017): the Fossil Osmundales
Bomfleur et al. (2017): The fossil Osmundales (Royal Ferns)—a phylogenetic network analysis, revised taxonomy, and evolutionary classification of anatomically preserved trunks and rhizomes. this study l) a rm fo n /i s ) u e ly n b i e s ri ) m y g u t e fa il b n b ib b u e u r u am (S G (S (T S F Wang et al. (2014)* Osmunda s) s) u l) l) u n a a n e s m y m s e g u r il r u g b n fo fo n b u e n am n e u (S G (i F (i G (S Tidwell & Ash (1994) s) s) Plenasium Plenasium u ly y u n i il n e s m y m s e g a l a g a Claytosmunda b u f i f u b a b b n d u n m e u d S e u a u S n ( G S F S G ( n u u m m s s O O nae p p Osmunda u u Osmunda o o ndi r r g g n n Osmunda Osmunda smu w w O o o r r c c a a Osmundastrum ndeae d d Osmundastrum Osmundastrum n n u u O. (Claytosmunda) O. (Claytosmunda) smu O m m s Osmundastrum s Osmundastrum O O Todea Todea Plenasium ) m l Leptopteris Leptopteris u a Plenasium Plenasium i s Miller (1971) rm a fo n e in l s/ P y u il n y m s e Todea Todea il fa u g b n b m u e u Fa S (S Millerocaulis Millerocaulis Aurealcaulis G Leptopteris Leptopteris Osmunda Millerocaulis Millerocaulis e e Todea a a e e c c nae a a a d d d n n n odei u T u u Leptopteris m m m s Osmundastrum s s O O O Plenasium Osmundoideae Millerocaulis group e a e d i o p p d e e Todea u u n e e a a o o u a a r r Ashicaulis e e Ashicaulis e e e Ashicaulis g g Ashicaulis m c c a d d s i i a a e m m O o o Leptopteris e e d d c d d t t n n n n a s s u u u u d m m n m m s s u s s O O m O O s O s s i i l herbstii group l u u a a c c a o r d e l n l Ashicaulis -
Kew Science Publications for the Academic Year 2017–18
KEW SCIENCE PUBLICATIONS FOR THE ACADEMIC YEAR 2017–18 FOR THE ACADEMIC Kew Science Publications kew.org For the academic year 2017–18 ¥ Z i 9E ' ' . -,i,c-"'.'f'l] Foreword Kew’s mission is to be a global resource in We present these publications under the four plant and fungal knowledge. Kew currently has key questions set out in Kew’s Science Strategy over 300 scientists undertaking collection- 2015–2020: based research and collaborating with more than 400 organisations in over 100 countries What plants and fungi occur to deliver this mission. The knowledge obtained 1 on Earth and how is this from this research is disseminated in a number diversity distributed? p2 of different ways from annual reports (e.g. stateoftheworldsplants.org) and web-based What drivers and processes portals (e.g. plantsoftheworldonline.org) to 2 underpin global plant and academic papers. fungal diversity? p32 In the academic year 2017-2018, Kew scientists, in collaboration with numerous What plant and fungal diversity is national and international research partners, 3 under threat and what needs to be published 358 papers in international peer conserved to provide resilience reviewed journals and books. Here we bring to global change? p54 together the abstracts of some of these papers. Due to space constraints we have Which plants and fungi contribute to included only those which are led by a Kew 4 important ecosystem services, scientist; a full list of publications, however, can sustainable livelihoods and natural be found at kew.org/publications capital and how do we manage them? p72 * Indicates Kew staff or research associate authors. -
Curriculum Vitae
CURRICULUM VITAE ORCID ID: 0000-0003-0186-6546 Gar W. Rothwell Edwin and Ruth Kennedy Distinguished Professor Emeritus Department of Environmental and Plant Biology Porter Hall 401E T: 740 593 1129 Ohio University F: 740 593 1130 Athens, OH 45701 E: [email protected] also Courtesy Professor Department of Botany and PlantPathology Oregon State University T: 541 737- 5252 Corvallis, OR 97331 E: [email protected] Education Ph.D.,1973 University of Alberta (Botany) M.S., 1969 University of Illinois, Chicago (Biology) B.A., 1966 Central Washington University (Biology) Academic Awards and Honors 2018 International Organisation of Palaeobotany lifetime Honorary Membership 2014 Fellow of the Paleontological Society 2009 Distinguished Fellow of the Botanical Society of America 2004 Ohio University Distinguished Professor 2002 Michael A. Cichan Award, Botanical Society of America 1999-2004 Ohio University Presidential Research Scholar in Biomedical and Life Sciences 1993 Edgar T. Wherry Award, Botanical Society of America 1991-1992 Outstanding Graduate Faculty Award, Ohio University 1982-1983 Chairman, Paleobotanical Section, Botanical Society of America 1972-1973 University of Alberta Dissertation Fellow 1971 Paleobotanical (Isabel Cookson) Award, Botanical Society of America Positions Held 2011-present Courtesy Professor of Botany and Plant Pathology, Oregon State University 2008-2009 Visiting Senior Researcher, University of Alberta 2004-present Edwin and Ruth Kennedy Distinguished Professor of Environmental and Plant Biology, Ohio -
Fern Classification
16 Fern classification ALAN R. SMITH, KATHLEEN M. PRYER, ERIC SCHUETTPELZ, PETRA KORALL, HARALD SCHNEIDER, AND PAUL G. WOLF 16.1 Introduction and historical summary / Over the past 70 years, many fern classifications, nearly all based on morphology, most explicitly or implicitly phylogenetic, have been proposed. The most complete and commonly used classifications, some intended primar• ily as herbarium (filing) schemes, are summarized in Table 16.1, and include: Christensen (1938), Copeland (1947), Holttum (1947, 1949), Nayar (1970), Bierhorst (1971), Crabbe et al. (1975), Pichi Sermolli (1977), Ching (1978), Tryon and Tryon (1982), Kramer (in Kubitzki, 1990), Hennipman (1996), and Stevenson and Loconte (1996). Other classifications or trees implying relationships, some with a regional focus, include Bower (1926), Ching (1940), Dickason (1946), Wagner (1969), Tagawa and Iwatsuki (1972), Holttum (1973), and Mickel (1974). Tryon (1952) and Pichi Sermolli (1973) reviewed and reproduced many of these and still earlier classifica• tions, and Pichi Sermolli (1970, 1981, 1982, 1986) also summarized information on family names of ferns. Smith (1996) provided a summary and discussion of recent classifications. With the advent of cladistic methods and molecular sequencing techniques, there has been an increased interest in classifications reflecting evolutionary relationships. Phylogenetic studies robustly support a basal dichotomy within vascular plants, separating the lycophytes (less than 1 % of extant vascular plants) from the euphyllophytes (Figure 16.l; Raubeson and Jansen, 1992, Kenrick and Crane, 1997; Pryer et al., 2001a, 2004a, 2004b; Qiu et al., 2006). Living euphyl• lophytes, in turn, comprise two major clades: spermatophytes (seed plants), which are in excess of 260 000 species (Thorne, 2002; Scotland and Wortley, Biology and Evolution of Ferns and Lycopliytes, ed. -
The Paraphyly of Osmunda Is Confirmed by Phylogenetic Analyses of Seven Plastid Loci
Systematic Botany (2008), 33(1): pp. 31–36 © Copyright 2008 by the American Society of Plant Taxonomists The Paraphyly of Osmunda is Confirmed by Phylogenetic Analyses of Seven Plastid Loci Jordan S. Metzgar,1 Judith E. Skog,2,3 Elizabeth A. Zimmer,4 and Kathleen M. Pryer1,5 1Department of Biology, Duke University, Durham, North Carolina 27708 U.S.A. 2Department of Environmental Science and Policy, George Mason University, Fairfax, Virginia 22030 U.S.A. 3National Science Foundation, Division of Biological Infrastructure, 4201 Wilson Blvd., Arlington, Virginia 22203 U.S.A. 4Department of Botany and Laboratory of Analytical Biology, Smithsonian Museum Support Center, 4210 Silver Hill Road, Suitland, Maryland 20746 U.S.A. 5Author for correspondence ([email protected]) Communicating Editor: Daniel Potter Abstract—To resolve phylogenetic relationships among all genera and subgenera in Osmundaceae, we analyzed over 8,500 characters of DNA sequence data from seven plastid loci (atpA, rbcL, rbcL–accD, rbcL–atpB, rps4–trnS, trnG–trnR, and trnL–trnF). Our results confirm those from earlier anatomical and single-gene (rbcL) studies that suggested Osmunda s.l. is paraphyletic. Osmunda cinnamomea is sister to the remainder of Osmundaceae (Leptopteris, Todea, and Osmunda s.s.). We support the recognition of a monotypic fourth genus, Osmundastrum, to reflect these results. We also resolve subgeneric relationships within Osmunda s.s. and find that subg. Claytosmunda is strongly supported as sister to the rest of Osmunda. A stable, well-supported classification for extant Osmundaceae is proposed, along with a key to all genera and subgenera. Keywords—ferns, Osmunda, Osmundaceae, Osmundastrum, paraphyly, plastid DNA. -
Osmunda Pulchella Sp. Nov. from the Jurassic of Sweden
Bomfleur et al. BMC Evolutionary Biology (2015) 15:126 DOI 10.1186/s12862-015-0400-7 RESEARCH ARTICLE Open Access Osmunda pulchella sp. nov. from the Jurassic of Sweden—reconciling molecular and fossil evidence in the phylogeny of modern royal ferns (Osmundaceae) Benjamin Bomfleur1*, Guido W. Grimm1,2 and Stephen McLoughlin1 Abstract Background: The classification of royal ferns (Osmundaceae) has long remained controversial. Recent molecular phylogenies indicate that Osmunda is paraphyletic and needs to be separated into Osmundastrum and Osmunda s.str. Here, however, we describe an exquisitely preserved Jurassic Osmunda rhizome (O. pulchella sp. nov.) that combines diagnostic features of both Osmundastrum and Osmunda, calling molecular evidence for paraphyly into question. We assembled a new morphological matrix based on rhizome anatomy, and used network analyses to establish phylogenetic relationships between fossil and extant members of modern Osmundaceae. We re-analysed the original molecular data to evaluate root-placement support. Finally, we integrated morphological and molecular data-sets using the evolutionary placement algorithm. Results: Osmunda pulchella and five additional Jurassic rhizome species show anatomical character suites intermediate between Osmundastrum and Osmunda. Molecular evidence for paraphyly is ambiguous: a previously unrecognized signal from spacer sequences favours an alternative root placement that would resolve Osmunda s.l. as monophyletic. Our evolutionary placement analysis identifies fossil species as probable ancestral members of modern genera and subgenera, which accords with recent evidence from Bayesian dating. Conclusions: Osmunda pulchella is likely a precursor of the Osmundastrum lineage. The recently proposed root placement in Osmundaceae—based solely on molecular data—stems from possibly misinformative outgroup signals in rbcL and atpA genes. -
Todea Barbara
Todea barbara COMMON NAME Royal Fern, Hard todea, King fern SYNONYMS Acrostichum barbarum L., Osmunda barbara Thunberg, Todea africana Willd. FAMILY Osmundaceae AUTHORITY Todea barbara (L.) T. Moore FLORA CATEGORY Vascular – Native ENDEMIC TAXON No ENDEMIC GENUS Todea barbara with spores at Coopers Beach. No Photographer: Bill Campbell ENDEMIC FAMILY No STRUCTURAL CLASS Ferns CHROMOSOME NUMBER 2n = 44 CURRENT CONSERVATION STATUS 2018 | Threatened – Nationally Vulnerable Plants in the wild, Spirits Bay. Photographer: John Smith-Dodsworth PREVIOUS CONSERVATION STATUSES 2012 | Threatened – Nationally Endangered | Qualifiers: SO 2009 | Threatened – Nationally Endangered | Qualifiers: SO 2004 | Threatened – Nationally Endangered DISTRIBUTION Indigenous. In New Zealand confined to the North Island, where it grows on the Poor Knights Islands and locally from Te Paki south to about Dargaville and the Bay of Islands. Common in South Africa and Australia. HABITAT Coastal to lowland areas. A species of gumland scrub, coastal shrublands, and streamside margins in open forest, occasionally found on coastal cliffs or on serpentinite. Often found on bare claybanks or fringing sinkholes in gumland scrub. FEATURES Extremely, robust, coriaceous ferns producing trunks up to 1 m tall. Stipes smooth, 150–600 mm, yellow brown, with ear–like lobes at base. Fronds persistent, coriaceous, 0.25–0.65 × 1.2–3.5 m, ovate, elliptic to lanceolate, 1-pinnate- pinnatifid to 2-pinnate, glabrous or finely pubescent along veins, glossy, upper surface pale green, yellow-green to golden yellow, undersides similar but paler. Pinnae 20–60 × 4–10 mm, lanceolate, narrowly oblong, to ovate; pinnules broadly attached at base, 15–80 × 4–9 mm, oblong-elliptic, apex acute, margins toothed; sporogenous pinnae occasionally shorter than sterile ones, restricted to lower part of frond, on lower pinnules of primary pinnae, at first in discrete groups, then confluent, green turning reddish brown. -
University of Michigan University Library
CONTRIBUTIONS FROM THE MUSEUM OF PALEONTOLOGY THE UNIVERSITY OF MICHIGAN VOL.XXI, NO.8, pp. 139-203 (4 pls., 9 figs.) JUNE 30,1967 EVOLUTION OF THE FERN GENUS OSMUNDA BY CHARLES N. MILLER, JR. MUSEUM OF PALEONTOLOGY THE UNIVERSITY OF MICHIGAN ANN ARBOR CONTRIBUTIONS FROM THE MUSEUM OF PALEONTOLOGY Director: LEWISB. KELLUM The series of contributions from the Museum of Paleontology is a medium for the publication of papers based chiefly upon the collection in the Museum. When the number of pages issued is sufficient to make a volume, a title page and a table of contents will be sent to libraries on the mailing list, and to individuals upon request. A list of the separate papers may also be obtained. Correspondence should be directed to the Museum of Paleontology, The University of Michigan, Ann Arbor, Michigan. VOLS.11-XX. Parts of volumes may be obtained if available. VOLUMEXXI 1. Fossils from the Seymour Formation of Knox and Baylor Counties, Texas, and their bearing on the Late Kansan Climate of that Region, by Claude W. Hibbard and Walter W. Dalquest, Pages 1-66, with 5 plates and 8 figures. 2. Planalveolitella, a new genus of Devonian Tabulate Corals, with a rede- scription of Planalveolites faughti (Edwards and Haime), by Erwin C. Stumm, Pages 67-72, with 1 plate. 3. Neopalaeaster enigmeticus, New Stadish from Upper Mississippian Paint Creek Formation in Illinois, by Robert V. Kesling, Pages 73-85, with plates and 3 figures. 4. Tabulate Corals of the Silica Shale (Middle Devonian) of Northwestern Ohio and Southeastern Michigan, by Erwin C. -
Keith Et Al.Indd
Spatial Analysis of Risks Posed by Root Rot Pathogen, Phytophthora cinnamomi: Implications for Disease Management DAVID A. KEITH1,2, KEITH L. MCDOUGALL1,3, CHRISTOPHER C. SIMPSON1 AND JILLIAN L. WALSH1 1 NSW Offi ce of Environment & Heritage, PO Box 1967, Hurstville NSW 2220. 2 Australian Wetlands and Rivers Centre, University of New South Wales, Sydney NSW 2052. 3 Department of Environmental Management & Ecology, La Trobe University, PO Box 821, Wodonga, Victoria 3689. Published on 3 September 2012 at http://escholarship.library.usyd.edu.au/journals/index.php/LIN Keith, D.A., McDougall, K.L., Simpson, C.C. and Walsh, J.L. (2012). Spatial analysis of risks posed by root rot pathogen, Phytophthora cinnamomi: implications for disease management. Proceedings of the Linnean Society of New South Wales 134, B147-B179. Phytophthora cinnamomi, a soil-borne pathogen that infects the roots of plants, is listed as a Key Threatening Process under Commonwealth and NSW state biodiversity legislation due to its deleterious effects on native fl ora. In warm temperate eastern Australia, the disease may cause insidious declines in plant species that have slow rates of population turnover, and thereby threaten their long term persistence. Phytophthora cinnamomi has been known to occur in Royal National Park since the 1970s and systematic surveys for the pathogen were carried out a decade ago. Development of effective management strategies to mitigate the impacts of the disease requires information on the spatial distribution of risks posed by the disease. In this study, we use limited disease survey data to identify areas that are most at risk. We propose and apply a simple risk model in which risks of disease impact are proportional to the product of habitat suitability for the pathogen and abundance of susceptible biota. -
Self-Guided Tour of the Dorrance H. Hamilton Fernery Welcome to the Self-Guided Dorrance H
Self-guided Tour of the Dorrance H. Hamilton Fernery Welcome to the self-guided Dorrance H. Hamilton Fernery Tour. The fernery was first built in 1898 by John T. Morris, the original owner of the Morris Arboretum property, and is fashioned aer the tradional Victorian Fernery Style that was extremely popular in England at the turn of the 20th century. The Dorrance H. Hamilton Fernery is the only free standing Fernery le in North America and is home to over 200 different species of ferns and fern allies. During this tour you will be introduced to some of the most notable ferns in the current collecon and be able to learn a lile bit more about them. As you enter the fernery you will be on a balcony overlooking the two coy ponds. From here you can see many ferns, but our tour will begin with the largest fern: Birds-nest Fern (Asplenium nidus): This fern is in the Spleenwort Family (Aspleniaceae) and is nave to Southeast Asia and Eastern Australia. This fern is quite noceable for its long undivided fronds that form a disncve bowl shape in the middle (a bird’s nest). In places where the fern is nave, the new fronds of young ferns are used as salad greens. If you flip over the fronds you will see many sori, collecon of sporangia each containing hundreds of spore. From just this one plant you could start growing a lot of fern salad greens! To the le of the Birds-nest fern you will see a fern with large rhizomes growing over the rocks this is: Bear-Paw Fern (Aglomorpha meyeniana): This fern nave to the Philippines and Tiawan and is a member of the Polypodiacea family (one of the largest fern families). -
Todea Barbara King Fern
PLANT Todea barbara King Fern AUS SA AMLR Endemism Life History Pre-1983 AMLR filtered records indicate a wider historic distribution across the central MLR from Mount - E E - Perennial Crawford to Mount Bold.4 Family OSMUNDACEAE Other known populations occur (no official records exist) at Black Hill CP (2 plants only), Scott Creek, Summertown (12 plants), Sturt Gorge, Cleland, Eagle Mountain Bike Park, Giles/Horsnell Gully, Magic Valley, Deep Creek and Basket Range (K. Brewer and J. Smith pers. comm.). Habitat Recorded habitat in the AMLR includes swamps, swampy gullies and creekbeds.6 All extant populations occur adjacent to permanent water, springs or soaks. Habitat is typically shrubland of Leptospermum lanigerum and Acacia provincialis over sedges and ferns including Gahnia sieberiana, Baumea tetragona and Blechnum spp. Permanent water/seepage is the principal limiting factor underpinning its distribution (T. Jury pers. comm.). Within the AMLR the preferred broad vegetation groups are Heathy Open Forest and Wetland.4 Within the AMLR the species’ degree of habitat 4 Photo: © Ann Prescott specialisation is classified as ‘Very High’. Conservation Significance Biology and Ecology In SA, the majority of the distribution is confined within Establishes via fine spores which disperse long the AMLR, disjunct from the remaining extant distances. Fire will kill plants.5 distribution in other States. Within the AMLR the species’ relative area of occupancy is classified as Aboriginal Significance ‘Extremely Restricted’. Relative to all AMLR extant Post-1983 records indicate the entire AMLR distribution species, the species' taxonomic uniqueness is occurs in Kaurna Nation (bordering Peramangk classified as ‘Very High’.4 Nation).4 Description Threats Fern with short rhizome. -
A Classification for Extant Ferns
55 (3) • August 2006: 705–731 Smith & al. • Fern classification TAXONOMY A classification for extant ferns Alan R. Smith1, Kathleen M. Pryer2, Eric Schuettpelz2, Petra Korall2,3, Harald Schneider4 & Paul G. Wolf5 1 University Herbarium, 1001 Valley Life Sciences Building #2465, University of California, Berkeley, California 94720-2465, U.S.A. [email protected] (author for correspondence). 2 Department of Biology, Duke University, Durham, North Carolina 27708-0338, U.S.A. 3 Department of Phanerogamic Botany, Swedish Museum of Natural History, Box 50007, SE-104 05 Stock- holm, Sweden. 4 Albrecht-von-Haller-Institut für Pflanzenwissenschaften, Abteilung Systematische Botanik, Georg-August- Universität, Untere Karspüle 2, 37073 Göttingen, Germany. 5 Department of Biology, Utah State University, Logan, Utah 84322-5305, U.S.A. We present a revised classification for extant ferns, with emphasis on ordinal and familial ranks, and a synop- sis of included genera. Our classification reflects recently published phylogenetic hypotheses based on both morphological and molecular data. Within our new classification, we recognize four monophyletic classes, 11 monophyletic orders, and 37 families, 32 of which are strongly supported as monophyletic. One new family, Cibotiaceae Korall, is described. The phylogenetic affinities of a few genera in the order Polypodiales are unclear and their familial placements are therefore tentative. Alphabetical lists of accepted genera (including common synonyms), families, orders, and taxa of higher rank are provided. KEYWORDS: classification, Cibotiaceae, ferns, monilophytes, monophyletic. INTRODUCTION Euphyllophytes Recent phylogenetic studies have revealed a basal dichotomy within vascular plants, separating the lyco- Lycophytes Spermatophytes Monilophytes phytes (less than 1% of extant vascular plants) from the euphyllophytes (Fig.