DOCSLIB.ORG

Endomycorrhizal Fungus in Chlorophyll-Free and Green Forms of the Terrestrial Orchid Epipactis Helleborine

Total Page：16

File Type：pdf, Size：1020Kb

Download full-text PDF Read full-text
Endomycorrhizal Fungus in Chlorophyll-Free and Green Forms of the Terrestrial Orchid Epipactis Helleborine Karstenia 28: 3-18. 1988 Endomycorrhizal fungus in chlorophyll-free and green forms of the terrestrial orchid Epipactis helleborine AULIKKI SALMIA SAL:MIA, A. 1988: Endomycorrhizal fungus in chlorophyll-free and green forms of the terrestrial orchid Epipactis helleborine.- Karstenia 28: 3-18. A brown, slowly growing unidentified fungus was isolated from nine (chlorophyll-free, yellowish-green and green) individuals of Epipactis helleborine (L.) Cranz collected from Finland. The brown fungus appeared regularly from sterilized root segments, and four isolates were obtained from hypha! coils in cortical cells of both green and white indi­ viduals. The results indicate that the same endophyte inhabited white and green plants of E. helleborine, and that the brown fungus can be considered to be the endophyte of this species, though this has not yet been confirmed with symbiotic tests. The effect of dif­ ferent surface-sterilizing agents on the appearance of the brown fungus from root pieces was investigated. The most suitable sterilization chemical proved to be 0.1% mercuric chloride in 50% ethanol. The morphology and some characteristics of the fungus are de­ scribed. The growth pattern and microscopic chracateristics of the brown endophyte differ from those of the well-known orchid fungi. No teleomorph could be obtained in culture. Aulikki Salmia, Department of Botany, University of Helsinki, Unioninkatu 44, SF- 00170 Helsinki, Finland Introduction (Burgeff 1936, Curtis 1939, Downie 1959, Smith Under natural conditions, the absorbing organs, roots 1966, Harvais & Harley 1967, Warcup & Talbot or rhizomes of most members of the Orchidaceae are 1967, Hadley 1970, Warcup 1981a, Terashita 1982, infected by intracellular fungi, which form coils of Alexander & Hadley 1983, Filipello Marchisio et al. hyphae within the cortical cells. Successful isolation 1985, Currah 1987). of the endophyte depends on the methods used (e.g. Almost all the fungi isolated, especially those from surface sterilizing, media), degree of infection and green orchids, have been assigned to the form genus viability of the hypha! coils. Probably due to its Rhizoctonia. The generic complex of Rhizoctonia is, efficiency, mercuric chloride (usually in water) has however, rather variable and ill-defined (Parmeter & been widely used as sterilizing agent in many orchids Whitney 1970, Tu & Kimbrough 1975). Perfect (Burges 1939, Curtis 1939, Downie 1959, Smith stages of Rhizoctonia are known to belong to the 1966, Harvais & Hadley 1967). Other chemicals that Basidiomycetes and Ascomycetes (see e.g. Whitney have been used for orchid root pieces are 9% & Parmeter 1964, Warcup 1975). Species in the hydrogen peroxide (Alexander & Hadley 1983), Rhizoctonia complex produce a wide variety of teleo­ 0.4% silver nitrate (Filipello Marchisio et al. 1985), morphs belonging to several families of the Basio­ sodium or calcium hypochlorite (Harvais 1974, Bar­ diomycetes, such as the Tulasnellaceae (Tulasnella roso et al. 1986a, b) and ethanol (Nieuwdorp 1972). spp.), Ceratobasidiaceae (Ceratobasidium spp., Tha­ If mature plants are infected by viable coils, the endo­ natephorus spp., Ypsilonidium spp.) and Tremella­ phytic fungi can be fairly easily isolated from roots, ceae (Sebacina vermifera) (see Warcup & Talbot especially in early or mid-summer. A considerable 1966, 1967, Harley 1969, Warcup & Talbot 1971, number of orchid fungi have been obtained in culture, Warcup 1975, Tu & Kimbrough 1978, Arditti 1979, usually by using potato dextrose agar or some other Warcup & Talbot 1980, Warcup 1981b, Hadley medium such as malt, cornmeal, or Dox-yeast agar 1982, Harley & Smith 1983). 4 SALMIA: ORCI·IID EPIPACTIS HELLEBORINE KARSTENIA 28 (1988) "Corticiwn catonii" (Burgeff 1936) and Favo­ 1943, Warcup & Talbot 1962, 1965, 1966, 1967) laschia dybowskyana (Jonsson & Nylund 1979), and can grow freely in soil, or they may be parasitic which both belong to the Aphyllophorales, have been on a variety of hosts, e.g. Thanatephorus cucwneris shown to be mycorrhizal with orchids. Clamp-form­ (Rhizoctonia solani) and Armillaria me/lea (Domsch ing and other Basidiomycetous genera which do not et al. 1980). Mycorrhizal infection of orchids differs belong to the Rhizoctonia complex have been identi­ from other kinds (VA, ectotrophic) in one fundamen­ fied, for instance, in achlorophyllous orchids: Maras­ tal respect (Harley & Smith 1983). The net movement mius coniatus in Didymoplexis minor (Burgeff of carbon compounds is from the substrate through 1959), Armillaria me/lea in Galeola septentrionalis the fungus into the host. In other forms of (Hamada 1939, see also Terashita 1985) and in mycorrhiza, carbon compounds originate in photo­ Castrodia cunninghamii (Campbell 1962), Fornes synthesis by the host and their net movement is into spp. in Galeola hydra (Burgeff 1959) and in Gastro­ the fungus (Harley & Smith 1983). dia sesamoides (Campbell 1964), and Hymenochaete In Lappeenranta, SE Finland, a population of Epi­ crocicreas in Galea/a altissima (Hamada & Nakamura pactis helleborine growing on a hill with Scots pine 1963). Three strains of Ascomycetes with rhiwcto­ as the dominant tree was found to contain normal niaiceous anamorphs have been isolated from Ptero­ green, yellowish-green and abundant white chloro­ stylis species in Australia, but all attempts to germi­ phyll-free individuals (Salmia 1986). All the plants nate Pterostylis seeds with them have been unsuc­ investigated were regularly and uniformly infected by cessful (Warcup 1975). The presence of some Asco­ a brown endophytic fungus, which was readily seen mycetes as endophytes has been established in tropi­ in whole mounts of root sections (Salrnia 1989). As cal orchid epiphytes (Petrini & Dreyfuss 1981, Drey­ both the green and chlorophyll-free plants of E. helle­ were shown to be infected, it was interesting fuss & Petrini 1984). A vesicular-arbuscular mycor­ borine to find out whether the fungi were identical, too. This rhiza has even been reported in the orchid Corybas paper deals with the isolation and properties of the macranthus (Hall1976). Many reports of the endophytic fungi of European endophytic fungi of the white and green plants. orchids are fairly old and sporadic and the attempts to obtain perfect stages of Rhizoctonia -like or other orchid fungi in culture have often been unsuccessful Plant material (see e.g. Filipello Marchisio et al. 1985). For in­ Mature plants of the broad-leaved helleborine (Epi­ stance, the perfect stages of the endophytes of the pactis helleborine (L.) Cranz) were collected from European saprophytic orchids are still unknown (see Lappeenranta, Finland; on 24 July 1981 (two plants, however Campbell 1970). Without the perfect stage, chlorophyll-free and normal green) and on 31 July the identification is extremely difficult and unsure and 1982 (8 plants: chlorophyll-free la-c; yellowish­ can be made only by comparing the data with those in green 2a, b; normal green 3a--c). For the site and the literature. In some European green orchids, how­ other details, see Salmia ( 1986, 1989). In addition, ever, endomycorrhizal fungi have been identified. two normal green plants were collected on 20 October Rhizoctonia goodyerae-repentis (perfect stage Cerato­ 1982 from Stromnas, Kemio, Finland; from sunny basidiwn cornigerum, cf. Warcup & Talbot 1966) calcareous bedrock with scattered Scots pines. The has been isolated from Goodyera repens (Downie field layer of the latter site contains Asplenium ruta­ 1940, Hadley 1970, Alexander & Hadley 1983), muraria, A. septentrionalis, Woodsia ilvensis, and Rhizoctonia so/ani ("Corticiwn so/ani", perfect stage Geranium sanguinewn (B. Linden, pers. comm.). Thanatephorus cucumeris, cf. Warcup & Talbot The localities, Lappeenranta and Kemio, are ca. 330 1967) from Dactylorchis purpurella (cf. Downie km apart. The plants were carefully removed from the 1957, 1959, Harvais & Hadley 1967) and from ground to ensure that the root system was kept intact. Coeloglossum viride (Harvais & Hadley 1967), E. helleborine has abundant long straight roots, the Thanatephorus orchidicola from Orchis mascula colour ranging from light to dark brown (Salmia (Warcup & Talbot 1966) and from Coeloglossum 1986, Fig. 6). The plants were grown in pots in a viride (Warcup & Talbot 1967), Thanatephorus pen­ greenhouse until the isolation of the fungi was natus from Calypso bulbosa (Currah 1987), and performed. Rhizoctonia repens (perfect stage Tulasnella calo­ spora) from Dactylorchis purpurella, Dactylorchiza maculata and Plantanthera bifolia (Warcup & Talbot 1967, Harvais & Hadley 1967, Hadley 1970). Isolation of endophyte(s) Some orchid endophytes, e.g. Ceratobasidium Preliminary studies, plants collected in cornigerum, are terrestrial saprophytes (Downie 1981. Two attempts were made to isolate the endo- KARS1ENIA 28 (1988) SALMIA: ORCIDD EPIPACTIS HELLEBORINE 5 phyte(s) of Epipactis helleborine. For mild sterilizing, PDA and cornrneal agar (CMA, Difco). The growth the root pieces were submerged in 70% ethanol (1-5 rates of these isolates were determined by measuring min) and washed with sterile water. Another trial the radial increase in two directions, first weekly dur­ included sterilizing in 70% ethanol for 3 min, and ing a 5-week period, then after 2 months. The diam­ several other surface-sterilizing methods: 0.1% eters of hyphae, monilioid cells and chlamydospores mercuric chloride in water 2 min, 1% AgN03 1 min, were measured in glycerol-water. subsequent washing with 4% NaCl (1 min), then
Load more

Recommended publications
  • Pollinator Diversity and Reproductive Success of [I]Epipactis Helleborine[I]
    Manuscript to be reviewed Pollinator diversity and reproductive success of Epipactis helleborine (L.) Crantz (Orchidaceae) in anthropogenic and natural habitats Agnieszka Rewicz Corresp., 1 , Radomir Jaskuła 2 , Tomasz Rewicz 3 , Grzegorz Tończyk 2 1 Department of Geobotany and Plant Ecology, University of Lodz, Łódź, Poland 2 Department of Invertebrate Zoology and Hydrobiology, University of Lodz, Łódź, Poland 3 Laboratory of Microscopic Imaging and Specialized Biological Techniques, University of Lodz, Łódź, Poland Corresponding Author: Agnieszka Rewicz Email address: [email protected] Background. Epipactis helleborine is an Eurasian orchid species which prefers woodland environments but it may also spontaneously and successfully colonise human-made artificial and disturbed habitats such as roadsides, town parks and gardens. It is suggested that orchids colonising anthropogenic habitats are characterised by a specific set of features (e.g.: large plant size, fast flower production). However, as it is not well known how pollinator diversity and reproductive success of E. helleborine differs in populations in anthropogenic habitats compared to populations from natural habitats, we wanted to compare pollinator diversity and reproductive success of this orchid species between natural and anthropogenic habitat types. Methods. Pollination biology, reproductive success and autogamy in populations of E. helleborine from anthropogenic (roadside) and natural (forest) habitats were compared. Eight populations (four natural and four human-disturbed ones) in two seasons were studied according to height of plants, length of inflorescences, as well as numbers of juvenile shoots, flowering shoots, flowers, and fruits. The number and diversity of insect pollinators were studied in one natural and two human-disturbed populations. Results.
    [Show full text]
  • Guide to the Flora of the Carolinas, Virginia, and Georgia, Working Draft of 17 March 2004 -- LILIACEAE
    Guide to the Flora of the Carolinas, Virginia, and Georgia, Working Draft of 17 March 2004 -- LILIACEAE LILIACEAE de Jussieu 1789 (Lily Family) (also see AGAVACEAE, ALLIACEAE, ALSTROEMERIACEAE, AMARYLLIDACEAE, ASPARAGACEAE, COLCHICACEAE, HEMEROCALLIDACEAE, HOSTACEAE, HYACINTHACEAE, HYPOXIDACEAE, MELANTHIACEAE, NARTHECIACEAE, RUSCACEAE, SMILACACEAE, THEMIDACEAE, TOFIELDIACEAE) As here interpreted narrowly, the Liliaceae constitutes about 11 genera and 550 species, of the Northern Hemisphere. There has been much recent investigation and re-interpretation of evidence regarding the upper-level taxonomy of the Liliales, with strong suggestions that the broad Liliaceae recognized by Cronquist (1981) is artificial and polyphyletic. Cronquist (1993) himself concurs, at least to a degree: "we still await a comprehensive reorganization of the lilies into several families more comparable to other recognized families of angiosperms." Dahlgren & Clifford (1982) and Dahlgren, Clifford, & Yeo (1985) synthesized an early phase in the modern revolution of monocot taxonomy. Since then, additional research, especially molecular (Duvall et al. 1993, Chase et al. 1993, Bogler & Simpson 1995, and many others), has strongly validated the general lines (and many details) of Dahlgren's arrangement. The most recent synthesis (Kubitzki 1998a) is followed as the basis for familial and generic taxonomy of the lilies and their relatives (see summary below). References: Angiosperm Phylogeny Group (1998, 2003); Tamura in Kubitzki (1998a). Our “liliaceous” genera (members of orders placed in the Lilianae) are therefore divided as shown below, largely following Kubitzki (1998a) and some more recent molecular analyses. ALISMATALES TOFIELDIACEAE: Pleea, Tofieldia. LILIALES ALSTROEMERIACEAE: Alstroemeria COLCHICACEAE: Colchicum, Uvularia. LILIACEAE: Clintonia, Erythronium, Lilium, Medeola, Prosartes, Streptopus, Tricyrtis, Tulipa. MELANTHIACEAE: Amianthium, Anticlea, Chamaelirium, Helonias, Melanthium, Schoenocaulon, Stenanthium, Veratrum, Toxicoscordion, Trillium, Xerophyllum, Zigadenus.
    [Show full text]
  • Phytogeographical Analysis and Ecological Factors of the Distribution of Orchidaceae Taxa in the Western Carpathians (Local Study)
    plants Article Phytogeographical Analysis and Ecological Factors of the Distribution of Orchidaceae Taxa in the Western Carpathians (Local study) Lukáš Wittlinger and Lucia Petrikoviˇcová * Department of Geography and Regional Development, Faculty of Natural Sciences, Constantine the Philosopher University in Nitra, 94974 Nitra, Slovakia; [email protected] * Correspondence: [email protected]; Tel.: +421-907-3441-04 Abstract: In the years 2018–2020, we carried out large-scale mapping in the Western Carpathians with a focus on determining the biodiversity of taxa of the family Orchidaceae using field biogeographical research. We evaluated the research using phytogeographic analysis with an emphasis on selected ecological environmental factors (substrate: ecological land unit value, soil reaction (pH), terrain: slope (◦), flow and hydrogeological productivity (m2.s−1) and average annual amounts of global radiation (kWh.m–2). A total of 19 species were found in the area, of which the majority were Cephalenthera longifolia, Cephalenthera damasonium and Anacamptis morio. Rare findings included Epipactis muelleri, Epipactis leptochila and Limodorum abortivum. We determined the ecological demands of the abiotic environment of individual species by means of a functional analysis of communities. The research confirmed that most of the orchids that were studied occurred in acidified, calcified and basophil locations. From the location of the distribution of individual populations, it is clear that they are generally arranged compactly and occasionally scattered, which results in ecological and environmental diversity. During the research, we identified 129 localities with the occurrence of Citation: Wittlinger, L.; Petrikoviˇcová, L. Phytogeographical Analysis and 19 species and subspecies of orchids. We identify the main factors that threaten them and propose Ecological Factors of the Distribution specific measures to protect vulnerable populations.
    [Show full text]
  • Non-Native Invasive Plants of the City of Alexandria, Virginia
    March 1, 2019 Non-Native Invasive Plants of the City of Alexandria, Virginia Non-native invasive plants have increasingly become a major threat to natural areas, parks, forests, and wetlands by displacing native species and wildlife and significantly degrading habitats. Today, they are considered the greatest threat to natural areas and global biodiversity, second only to habitat loss resulting from development and urbanization (Vitousek et al. 1996, Pimentel et al. 2005). The Virginia Department of Conservation and Recreation has identified 90 non-native invasive plants that threaten natural areas and lands in Virginia (Heffernan et al. 2014) and Swearingen et al. (2010) include 80 plants from a list of nearly 280 non-native invasive plant species documented within the mid- Atlantic region. Largely overlapping with these and other regional lists are 116 species that were documented in the City of Alexandria, Virginia during vegetation surveys and natural resource assessments by the City of Alexandria Dept. of Recreation, Parks, and Cultural Activities (RPCA), Natural Lands Management Section. This list is not regulatory but serves as an educational reference informing those with concerns about non-native invasive plants in the City of Alexandria and vicinity, including taking action to prevent the further spread of these species by not planting them. Exotic species are those that are not native to a particular place or habitat as a result of human intervention. A non-native invasive plant is here defined as one that exhibits some degree of invasiveness, whether dominant and widespread in a particular habitat or landscape or much less common but long-lived and extremely persistent in places where it occurs.
    [Show full text]
  • Some Notes on Epipactis Helleborine (L.)Crantz Ssp
    ratuur Les Naturalistes belges: 1989 Special Orchidees no 2 1990 Some notes on Epipactis helleborine (L.) Crantz ssp. ann, H. & S. Kunkele, 1988. Die Orchideen Euros. Special Orchidees no 3 Kosmos Naturfuhrer, Franckh., Stuttgart. 1994 Special Orchidees no 7 supplement neerlandica (Vermeulen) Buttler and Epipactis renzii K. r, K. P., 1986. Orchideen, die wildwachsenden Arn 1995 Special Orchidees no 8 und Unterarten Europas, Vorderasiens und rdafrika. Robatsch Verder geraadpleegd: het vindplaatsarchief 1986-1988 van Steinbachs Naturfuhrer, Mosaik Verlag, H. Dekker unchen. JEAN CLAESSENS, JACQUES KLEYNEN & RUUD WIELlNGA e, P., 1994. Guide des orchidees d'Europe, etc. ehr, J., 1977. Wilde Orchideeen van Europa 1 & 2. MEVR. F. KERREMANS-VAN HUFFEL Key words: tions are unfavourable. This may also cause chan- reniging van Natuurmonumenten in Nederland, 's- Steenwinkelstraat 513 ges of the column structure, that must be regarded ave/and. B - 2627 Schelle as of only little importance. Therefore an autoga- pipactis, E. helleborine ssp. neerlandica, E. mous variety of Epipactis helleborine ssp. neer- renzii, E. helleborine ssp. neerlandica var. landica, described as E. renzii, is lowered to the E renzii, autogamy. varietal rank. Samenvatting Zusammenfassung Epipactis helleborine ssp. neerlandica wordt in zijn Typische Exemplare von Epipactis helleborine ssp. typische vorm gevonden in kruipwilgvegetaties in de neerlandica finden sich vor allem im Salix repens- Nederlandse duinen. In dennenbossen in de duinen Gebüsch in den niederländischen Dünen. In den kunnen planten worden gevonden, die neigen naar Fichtenwäldern der Dünen wachsen Pflanzen die Epipactis helleborine. nach E. helleborine neigen. Im Jahre 1997 fanden In 1997 vonden de auteurs autogame Epipactis die Autoren autogame E.
    [Show full text]
  • Many Ways to Get Happy: Pollination Modes Of
    MANY WAYS TO GET HAPPY: POLLINATION MODES OF EUROPEAN EPIPACTIS SPECIES JEAN CLAESSENS AND JACQUES KLEYNEN Summary Pollination Mechanism of Allogamous The European members of the orchid genus Epipac- Species tis shows a great variety of pollination modes, ranging For better understanding of the changes in the con- from allogamy (reproducing by cross-fertilization) to struction and pollination mode of the flowers we will autogamy (pollination of a flower by its own pollen) take Epipactis helleborine, the Broad-leaved Helleborine, and a mixture of both. In this article the structure of as an example (fig. 1). This is a European species that the flower, the adaptations to the pollinators, as well has colonized North America successfully: in Wiscon- as the changes in the column structure that enable self- sin, it is considered a weed! It was first found in the pollination are discussed. USA in 1879, after which its population expanded rap- idly. In Europe, it is widespread and frequent. It prefers Introduction moderately shaded places and can be found in a wide The species of the genus Epipactis are not among the variety of habitats: woods, bushes but also, man-made flashiest orchids that draw the attention of enthusiasts, environments like parks, lanes, sidewalks and cemeter- like the genus Ophrys or the tropical orchids. Yet they ies. are a quite interesting group. They show remarkable The flowers are rather inconspicuous, possessing adaptations to their pollinators and have also adapted typical drab wasp-colors of reddish brown and dull their mode of pollination to environmental conditions. purple, as can also be found in the genus Scrophularia In this article, we will examine several species of the ge- (figworts), which have typical wasp flowers too.
    [Show full text]
  • Flora Invasive Exotic Plants That Threaten Parks and Natural Areas
    EXPIRED INFORMATION Updated Information at: https://www.alexandriava.gov/hub.aspx?id=108269 ,QYDVLYH([RWLF3ODQWV7KDW7KUHDWHQ3DUNVDQG1DWXUDO$UHDVLQ$OH[DQGULD Invasive exotic plants have increasingly become a major threat to natural areas, parks, forests, and wetlands by displacing native species and wildlife and significantly degrading habitats. Today, they are considered perhaps the greatest threat to natural areas and global biodiversity, second only to habitat loss resulting from development and urbanization (Vitousek et al. 1996). The Virginia Department of Conservation and Recreation and the Virginia Native Plant Society have identified 109 invasive exotic plants that threaten natural areas and lands in Virginia (VA- DCR 2009) and Swearingen et al. (2010) include 80 plants from a list of nearly 280 invasive exotic plant species documented within the mid-Atlantic region. Largely overlapping with these and other regional lists are 85 species that were documented for the City of Alexandria, Virginia during natural resource assessments and vegetation surveys by the City Dept. of Recreation, Parks, and Cultural Activities (RPCA), Horticulture and Natural Resources Section. Exotic species are those that are not native to a particular place or habitat, as a result of human intervention. An invasive exotic plant is here defined as one that exhibits some degree of invasiveness, whether dominant and widespread in a particular habitat or landscape – regardless of the quality or condition of the site – or much less common but long-lived and extremely persistent in places where it occurs. The presence of invasive exotic plants is largely the result of soil and habitat disturbance, though many of these species are capable of eventually spreading from degraded areas into relatively undisturbed sites, such as interior forest.
    [Show full text]
  • ORCHID CONSERVATION NEWS the Newsletter of the Orchid Specialist Group of the IUCN Species Survival Commission
    ORCHID CONSERVATION NEWS The Newsletter of the Orchid Specialist Group of the IUCN Species Survival Commission Issue 1 March 2021 PATHS TOWARD CONSERVATION PROGRESS Orchid workshop at Bogotá Botanic Garden, Colombia in 2017 1 https://www.bgci.org/our-work/plant- Editorial conservation/conservation-prioritisation/ex-situ- At the time of this first Issue of 2021, many challenges surveys/ still lie before us, lots of unknowns yet to be determined with the pandemic at the forefront of our thoughts. We Why am I puzzled? Well firstly, I don’t know where are doing our best to continue our conservation work the figure of 38% has come from. Although encouraging despite constraints whether it be project planning, data progress is being made with Red Listing, I don’t think collection and management, seed banking, evaluating we know how many species are threatened globally. conservation strategies, or continuing studies of orchid Secondly, does just one individual plant count as an ex populations over the long term. With the situ collection? Surely we need to be focusing on unpredictability and randomness of natural events that conserving as far as possible the genetic diversity within may threaten orchid ecosystems, long-term monitoring each species. Thirdly, the table doesn’t tell me whether studies are being re-visited years, even decades after the collection is plants and/or seed. their initiation, to study what has been happening following severe disturbance. For example, Deschênes, The BGCI report asserts that botanical gardens are the Brice & Brisson (2019) have reported, after an initial main repository of orchid collections.
    [Show full text]
  • Wildflowers and Ferns Along the Acton Arboretum Wildflower Trail and in Other Gardens FERNS (Including Those Occurring Naturally
    Wildflowers and Ferns Along the Acton Arboretum Wildflower Trail and In Other Gardens Updated to June 9, 2018 by Bruce Carley FERNS (including those occurring naturally along the trail and both boardwalks) Royal fern (Osmunda regalis): occasional along south boardwalk, at edge of hosta garden, and elsewhere at Arboretum Cinnamon fern (Osmunda cinnamomea): naturally occurring in quantity along south boardwalk Interrupted fern (Osmunda claytoniana): naturally occurring in quantity along south boardwalk Maidenhair fern (Adiantum pedatum): several healthy clumps along boardwalk and trail, a few in other Arboretum gardens Common polypody (Polypodium virginianum): 1 small clump near north boardwalk Hayscented fern (Dennstaedtia punctilobula): aggressive species; naturally occurring along north boardwalk Bracken fern (Pteridium aquilinum): occasional along wildflower trail; common elsewhere at Arboretum Broad beech fern (Phegopteris hexagonoptera): up to a few near north boardwalk; also in rhododendron and hosta gardens New York fern (Thelypteris noveboracensis): naturally occurring and abundant along wildflower trail * Ostrich fern (Matteuccia pensylvanica): well-established along many parts of wildflower trail; fiddleheads edible Sensitive fern (Onoclea sensibilis): naturally occurring and abundant along south boardwalk Lady fern (Athyrium filix-foemina): moderately present along wildflower trail and south boardwalk Common woodfern (Dryopteris spinulosa): 1 patch of 4 plants along south boardwalk; occasional elsewhere at Arboretum Marginal
    [Show full text]
  • Ophrys Apifera Huds. (Orchidaceae) on a Heap of Limestone Mine Waste – the First Population Found in the Sudetes and the Second in Poland
    Biodiv. Res. Conserv. 59: 9-14, 2020 BRC www.brc.amu.edu.pl Doi 10.2478/biorc-2020-0007 Submitted 05.08.2020, Accepted 14.09.2020 Ophrys apifera huds. (orchidaceae) on a heap of limestone mine waste – the first population found in the Sudetes and the second in Poland Anna Wójcicka-Rosińska1, Dariusz Rosiński1 & ewa Szczęśniak2* 1geosilva Sp. z o.o., J. Tuwima 11, 54-200 oława, Poland 2Department of Botany, institute of environmental Biology, University of Wrocław, h. Sienkiewicza 21, 50-335 Wrocław, Poland; oRCiD 0000-0002-8162-7520 * corresponding author (e-mail: [email protected]) Abstract. The paper reports the finding of a new locality of Ophrys apifera – the first locality of this species in the Sudeten range and the second in Poland. A new population was found in the Kaczawskie Mts. (Western Sudetes). it consists of 23 flowering plants and occurs in an operating limestone quarry. The detailed data on this population and its habitat are included. Key words: Ophrys apifera, bee-orchid, orchids, distribution changes, Sudetes 1. Introduction europe, Middle east up to Caucasus and Turkmeni- stan), but mostly occurrs in the Mediterranean region. The genus Ophrys L. is known to botanists and Areas of high diversity comprise southern italy and orchid enthusiasts as a model system of floral evolu- the Aegean region (Soliva et al. 2001); the number of tion and pollination mimicry. These orchids developed Ophrys species decreases to the north and north-east a specialized flower-pollinator relationship of pollina- of europe. in Central europe, up to the end of the 20th tion by deception, more precisely – sexual deception century, only a few species were noted: 4 in germany (pseudo copulation; Schiestl 2005).
    [Show full text]
  • The Epipactis Helleborine Group (Orchidaceae): an Overview of Recent Taxonomic Changes, with an Updated List of Currently Accepted Taxa
    plants Review The Epipactis helleborine Group (Orchidaceae): An Overview of Recent Taxonomic Changes, with an Updated List of Currently Accepted Taxa Zbigniew Łobas 1,* , Anatoliy Khapugin 2,3 , Elzbieta˙ Zołubak˙ 1 and Anna Jakubska-Busse 1,* 1 Department of Botany, Faculty of Biological Sciences, University of Wroclaw, 50-328 Wroclaw, Poland; [email protected] 2 Institute of Environmental and Agricultural Biology (X-BIO), Tyumen State University, 625003 Tyumen, Russia; [email protected] 3 Joint Directorate of the Mordovia State Nature Reserve and National Park “Smolny”, 430005 Saransk, Russia * Correspondence: [email protected] (Z.Ł.); [email protected] (A.J.-B.) Abstract: The Epipactis helleborine (L.) Crantz group is one of the most taxonomically challenging species complexes within the genus Epipactis. Because of the exceptionally high levels of morpho- logical variability and the ability to readily cross with other species, ninety different taxa at various taxonomic ranks have already been described within its nominative subspecies, but the taxonomic status of most of them is uncertain, widely disputed, and sometimes even irrelevant. The present review is based on results of the most recent research devoted to the E. helleborine group taxonomy. In addition, we analysed data about taxa belonging to this group presented in some research articles and monographs devoted directly to the genus Epipactis or to orchids in certain area(s). Based on the reviewed literature and data collected in four taxonomic databases Available Online, we propose an Citation: Łobas, Z.; Khapugin, A.; updated list of the 10 currently accepted taxa in the E.
    [Show full text]
  • Orchid Atlas-For-Print20160704
    Page 1 Bittern Countryside Community Interest Company An Atlas and Guide to the Orchids of the Arnside & Silverdale AONB Supporting the Arnside & Silverdale Area of Outstanding Natural Beauty Bittern Countryside Community Interest Company Registered Office: The Old Station Building, Arnside, LA5 0HG Registered number 6363720 © Bittern Countryside Community Interest Company, July 2016 Produced with assistance from the Arnside & Silverdale AONB Sustainable Development Fund Website:http://www.arnsidesilverdaleaonb.org.uk/AONB/Support/Bittern-Countryside-CIC.html Page 2 An Atlas and Guide to the Orchids of the AONB by Ann Kitchen, July 2016 Why have an Atlas and what is it for? For over 35 years the flora of the Arnside and Silverdale AONB has been recorded. First by Dr Margaret Baeker and Charles Bromley Webb followed by Julie Clarke who records for the BSBI. Geoffrey Halliday recorded the Cumbrian tetrads (2km squares) and Eric Greenwood the Lancashire ones for their Floras. Ken and I first got involved when we helped Charles Bromley Webb put all his records onto a computer. Julie and I went on to follow in his footsteps as the botanical recorders for the Arnside and District Natural History Society. Aided by a willing band of amateur botanists we have tried to record every species growing in each one-kilometre square (Monad) of the AONB and to record its progress through time. I suspect that there is still plenty out there to be discovered. We have not managed to cover all the squares. This is an attempt to make some of the knowledge we have gained available to the wider public.
    [Show full text]