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Twin Cities Chapter Quarterly Newsletter
Twin Cities Chapter Quarterly Newsletter November 2017 Volume 15, Issue 4 Upcoming Events/Monthly Meetings SAVE THE DATE!! Saturday, February 17, 2018 DESIGN WITH NATURE CONFERENCE We Are Wildlife Edible and Medicinal Native Plants in Restoration Practice Featured Speakers: Jared Rosenbaum & Rachel Machow, Wild Ridge Plants, growers and stewards of native plants. Catherine Zimmerman, The Meadow Project and Director of Urban and Suburban Meadows Native Plant/Natural Landscape Exhibitors—Experts to help match your ideas with the land! Where: Anderson Student Center, University of St. Thomas, St. Paul Campus. More details will be found in our February Newsletter or at designwithnatureconference.org Conference Keynote Speaker: Jared Rosenbaum explores the greater role native plants may play in home landscapes, farms and food gardens. How might we change our foodways, growing and eating habits, to favor the diversity of edible and medicinal native plants needed for natural land restoration and stewardship? What are the native plant design and management considerations between different Jared Rosenbaum habitats such as mesic forest, ridge lines and riparian corridors? 1 Jared is a field botanist, co-owner of native plant nursery Wild Ridge Plants, and ecological restoration practitioner, dedicated to finding ways we can create sustainable habitat that supports humans, other animals, and native plants alike. He is a founding partner at Wild Ridge Plants LLC, a business that grows local ecotype native plants using sustainable practices, performs botanical surveys, and provides ecological restoration planning services. Jared has extensive experience in stewardship and monitoring of natural communities. He is known as an educator in plant ecology, ecological restoration, and the cultural uses of wild plant foods and medicines. -
Succession in Ant Communities (Hymenoptera: Formicidae) in Deciduous Forest Clear-Cuts – an Eastern European Case Study
EUROPEAN JOURNAL OF ENTOMOLOGYENTOMOLOGY ISSN (online): 1802-8829 Eur. J. Entomol. 114: 92–100, 2017 http://www.eje.cz doi: 10.14411/eje.2017.013 ORIGINAL ARTICLE Succession in ant communities (Hymenoptera: Formicidae) in deciduous forest clear-cuts – an Eastern European case study IOAN TĂUŞAN 1, JENS DAUBER 2, MARIA R. TRICĂ1 and BÁLINT MARKÓ 3 1 Department of Environmental Sciences, Lucian Blaga University of Sibiu; Applied Ecology Research Centre, Dr. Raţiu 5-7, 550012 Sibiu, Romania; e-mails: [email protected], [email protected] 2 Thünen Institute of Biodiversity, Federal Research Institute for Rural Areas, Forestry and Fisheries, Bundesallee 50, D-38116 Braunschweig, Germany; e-mail: [email protected] 3 Hungarian Department of Biology and Ecology, Babeş-Bolyai University, Clinicilor 5-7, 400006 Cluj-Napoca, Romania; e-mails: [email protected], [email protected] Key words. Hymenoptera, Formicidae, ants, deciduous forests, secondary succession, clear-cutting, community structure, pitfall traps Abstract. Clear-cutting, the main method of harvesting in many forests in the world, causes a series of dramatic environmental changes to the forest habitat and removes habitat resources for arboreal and epigeal species. It results in considerable changes in the composition of both plant and animal communities. Ants have many critical roles in the maintenance and functioning of forest ecosystems. Therefore, the response of ants to clear-cutting and the time it takes for an ant community to recover after clear- cutting are important indicators of the effect of this harvesting technique on the forest ecosystem. We investigated ground-dwelling ant communities during secondary succession of deciduous forests in Transylvania, Romania. -
Wester Ross Fisheries Trust Biosecurity Plan 2010 – 2015
Wester Ross and Lochalsh Biosecurity Plan 2021-30 Wester Ross Fisheries Trust & Skye and Lochalsh Rivers Trust i Contents Background ............................................................................................................................ 1 1. Introduction .................................................................................................................... 1 2. Context ................................................................................................................................ 3 2.1 Biosecurity: The Nature of the Problem ......................................................................................... 3 2.2 Policy and Legislation ......................................................................................................................... 4 3. Biosecurity: Current and Potential Threats ...................................................................... 5 3.1 Current biosecurity issues ............................................................................................................... 6 3.2 Potential Biosecurity Issues ............................................................................................................. 7 3.3 Fish Health and genetic issues .......................................................................................................... 11 3.4 INNS and Fish Diseases Pathways ..................................................................................................... 11 4. Existing INNS control activities ..................................................................................... -
New Zealand Flatworm
www.nonnativespecies.org Produced by Max Wade, Vicky Ames and Kelly McKee of RPS New Zealand Flatworm Species Description Scientific name: Arthurdendyus triangulatus AKA: Artioposthia triangulata Native to: New Zealand Habitat: Gardens, nurseries, garden centres, parks, pasture and on wasteland This flatworm is very distinctive with a dark, purplish-brown upper surface with a narrow, pale buff spotted edge and pale buff underside. Many tiny eyes. Pointed at both ends, and ribbon-flat. A mature flatworm at rest is about 1 cm wide and 6 cm long but when extended can be 20 cm long and proportionally narrower. When resting, it is coiled and covered in mucus. It probably arrived in the UK during the 1960s, with specimen plants sent from New Zealand to a botanic garden. It was only found occasionally for many years, but by the early 1990s there were repeated findings in Scotland, Northern Ireland and northern England. Native to New Zealand, the flatworm is found in shady, wooded areas. Open, sunny pasture land is too hot and dry with temperatures over 20°C quickly lethal to it. New Zealand flatworms prey on earthworms, posing a potential threat to native earthworm populations. Further spread could have an impact on wild- life species dependent on earthworms (e.g. Badgers, Moles) and could have a localised deleterious effect on soil structure. For details of legislation go to www.nonnativespecies.org/legislation. Key ID Features Underside pale buff Ribbon flat Leaves a slime trail Pointed at Numerous both ends tiny eyes 60 - 200 mm long; 10 mm wide Upper surface dark, purplish-brown with a narrow, pale buff edge Completely smooth body surface Forms coils when at rest Identification throughout the year Distribution Egg capsules are laid mainly in spring but can be found all year round. -
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Myrmecologische Nachrichten 8 257 - 262 Wien, September 2006 Formica lusatica SEIFERT, 1997 (Hymenoptera: Formicidae), an ant species new to Finland, with notes on its biology and the description of males Wojciech CZECHOWSKI & Alexander RADCHENKO Abstract A taxonomically problematic ant species from southernmost Finland, so far determined as Formica rufibarbis FABRICIUS, 1793 or / and F. cunicularia LATREILLE, 1798, is identified as Formica lusatica SEIFERT, 1997. This is the first report of this species from Finland. Aspects of the biology of F. lusatica under the local conditions, and especially its relations with Formica sanguinea LATREILLE, 1798, are presented and the description of its males is given. Key words: Ants, Formica lusatica, Formica sanguinea, fauna, taxonomy, description of male, ecology, social para- sitism, Finland. Prof. Dr. Wojciech Czechowski (contact author), Prof. Dr. Alexander Radchenko, Museum and Institute of Zoology, Polish Academy of Sciences, 64 Wilcza Str., 00-679, Warsaw, Poland. E-mail: [email protected]; [email protected]. kiev.ua Introduction Until recently, two species of the Formica rufibarbis com- given by SEIFERT (1996) in the key. Together with this plex were recorded in Finland: F. rufibarbis FABRICIUS, report, we describe the males of F. lusatica and briefly 1793 (COLLINGWOOD 1979) and F. cunicularia LATREILLE, compare them with the males of F. cunicularia and F. rufi- 1798 (ALBRECHT 1993), both reported only from the south- barbis. The aim of the study was also to describe elements ern part of the country (approximately to latitude 62° N). of biology of F. lusatica, especially the nature of its rela- The main morphological differences between F. -
FINAL Abstracts Speakers Conference
ABSTRACTS Invasive Alien Species: the Urban Dimension Strengthening local action in Europe’s urban areas 5 September 2013, IUCN Global Headquarters, Gland, Switzerland Abstracts Opening speech Gian-Reto Walther, Scientific officer of the Species, Ecosystems, Landscapes Division Swiss Federal Office for the Environment The national inventory of alien species in Switzerland 1 lists about 800 established alien species and identifies among them 107 invasive alien species. The Swiss Biodiversity Strategy 2 formulates as strategic goal: The spread of invasive alien species with the potential to cause damage is contained. The action plan to the Swiss Biodiversity Strategy is due in early 2014 and will consist of a comprehensive work package to achieve the targets of the strategy. In the national legislation, invasive alien species are treated in several laws, e.g. the federal acts on the protection of nature and cultural heritage, on the protection of the environment, on hunting and the protection of wild mammals and birds, on fisheries, on forest, and on agriculture, with their relevant ordinances. Since 2008, the national Ordinance on the Handling of Organisms in the Environment (Release Ordinance, RO) 3 is in force. It includes alien species in particular and consists of a multi-level approach in dealing the handling of alien species. The precautionary principle is applied as a general requirement for handling organisms. Any person who intends to market organisms for the use in the environment must first assess the hazards and impairments by the organisms and arrive at a justifiable conclusion that none of these are to be expected. As a subsequent step, the ordinance formulates requirements for handling alien organisms, and as a final step, the ordinance lists those invasive alien species that may not be handled directly in the environment, other than in the case of measures to control them. -
The Potential Detrimental Impact of the New Zealand Flatworm to Scottish
B. Boag and R. Neilson Boag, B. and R. Neilson. The potential detrimental impact of the New Zealand fl atworm to Scottish islands The potential detrimental impact of the New Zealand fl atworm to Scottish islands B. Boag and R. Neilson The James Hutton Institute, Invergowrie, Dundee, Scotland, DD2 5DA, UK. <[email protected]>. Abstract: The New Zealand fl atworm, Arthurdendyus triangulatus, is an alien invasive species in The British Isles and the Faroes. It was probably fi rst introduced after WWII and is an obligate predator of our native earthworms. It was initially considered a curiosity until observations in the 1990s in Northern Ireland found it could signifi cantly reduce earthworm numbers. In 1992, it was scheduled under the Countryside and Wildlife Act 1981 then transferred to the Wildlife and Natural Environment (Scotland) Act in 2011 which makes it an off ence to knowingly distribute the fl atworm. A retrospective survey in Scotland showed that it was detected in botanic gardens, nurseries and garden centres in the 1960s but then spread to domestic gardens then fi nally to farms in the 1990s. Although the geographical distribution of A. triangulatus was initially confi ned to mainland Scotland it was subsequently found established on 30 Scottish Islands. Most of the islands are to the north and west of Scotland and have cool damp climates which are favoured by the New Zealand fl atworm. These islands also generally have relatively poor soils that support grassland farming systems. Evidence from both Northern Ireland and Scotland suggests anecic species of earthworm which occur predominantly in grassland, which help drainage and are a source of food for both animals and birds are at particular risk from the fl atworm. -
The Evolution of Social Parasitism in Formica Ants Revealed by a Global Phylogeny – Supplementary Figures, Tables, and References
The evolution of social parasitism in Formica ants revealed by a global phylogeny – Supplementary figures, tables, and references Marek L. Borowiec Stefan P. Cover Christian Rabeling 1 Supplementary Methods Data availability Trimmed reads generated for this study are available at the NCBI Sequence Read Archive (to be submit ted upon publication). Detailed voucher collection information, assembled sequences, analyzed matrices, configuration files and output of all analyses, and code used are available on Zenodo (DOI: 10.5281/zen odo.4341310). Taxon sampling For this study we gathered samples collected in the past ~60 years which were available as either ethanol preserved or pointmounted specimens. Taxon sampling comprises 101 newly sequenced ingroup morphos pecies from all seven species groups of Formica ants Creighton (1950) that were recognized prior to our study and 8 outgroup species. Our sampling was guided by previous taxonomic and phylogenetic work Creighton (1950); Francoeur (1973); Snelling and Buren (1985); Seifert (2000, 2002, 2004); Goropashnaya et al. (2004, 2012); Trager et al. (2007); Trager (2013); Seifert and Schultz (2009a,b); MuñozLópez et al. (2012); Antonov and Bukin (2016); Chen and Zhou (2017); Romiguier et al. (2018) and included represen tatives from both the New and the Old World. Collection data associated with sequenced samples can be found in Table S1. Molecular data collection and sequencing We performed nondestructive extraction and preserved samespecimen vouchers for each newly sequenced sample. We remounted all vouchers, assigned unique specimen identifiers (Table S1), and deposited them in the ASU Social Insect Biodiversity Repository (contact: Christian Rabeling, [email protected]). -
Hidden Diversity in Forest Soils: Characterization and Comparison of Terrestrial Flatworm’S Communities in Two National Parks in Spain
Received: 12 January 2018 | Revised: 3 April 2018 | Accepted: 20 April 2018 DOI: 10.1002/ece3.4178 ORIGINAL RESEARCH Hidden diversity in forest soils: Characterization and comparison of terrestrial flatworm’s communities in two national parks in Spain Marta Álvarez-Presas1 | Eduardo Mateos2 | Marta Riutort1 1Departament de Genètica, Microbiologia i Estadística, Institut de Recerca de la Abstract Biodiversitat (IRBio), Universitat de Terrestrial flatworms (Platyhelminthes, Tricladida, and Geoplanidae) belong to what Barcelona, Barcelona, Spain is known as cryptic soil fauna of humid forests and are animals not easily found or 2Departament de Biologia Evolutiva, Ecologia i Ciències Ambientals, Universitat captured in traps. Nonetheless, they have been demonstrated to be good indicators de Barcelona, Barcelona, Spain of the conservation status of their habitat as well as a good model to reconstruct the Correspondence recent and old events affecting biodiversity. This is mainly due to their delicate con- Marta Riutort, Departament de Genètica, stitution, their dependence on the integrity of their habitat, and their very low dis- Microbiologia i Estadística, Institut de Recerca de la Biodiversitat (IRBio), persal capacity. At present, little is known about their communities, except for some Universitat de Barcelona, Avinguda studies performed in Brazil. In this work, we analyze for the first time in Europe ter- Diagonal, 643, Barcelona 08028, Spain. Email: [email protected] restrial flatworm communities. We have selected two protected areas belonging to the Red Española de Parques Nacionales. Our aims include performing a first study of Funding information Ministerio de Agricultura, Alimentación y the species richness and community structure for European terrestrial planarian spe- Medio Ambiente (Spain) program “Ayudas cies at regional and local scale. -
Predation on Invasive Land Gastropods by a Neotropical Land Planarian Piter Kehoma Boll and Ana Maria Leal-Zanchet*
Journal of Natural History, 2015 Vol. 49, Nos. 17–18, 983–994, http://dx.doi.org/10.1080/00222933.2014.981312 Predation on invasive land gastropods by a Neotropical land planarian Piter Kehoma Boll and Ana Maria Leal-Zanchet* Instituto de Pesquisa de Planárias and Programa de Pós-Graduação em Biologia, Universidade do Vale do Rio dos Sinos – UNISINOS, São Leopoldo, Brazil (Received 22 May 2014; accepted 23 October 2014; first published online 18 December 2014) Studies on the predatory behaviour of land planarians have focused mainly on established invasive species, while the feeding habits of non-invasive planarians are poorly understood. We analyse the predatory behaviour of Obama ladislavii,a land planarian native to southern Brazil that is common in both natural and human-disturbed areas. Observations were performed in the laboratory. Several groups of invertebrates were offered as possible prey and interactions between these invertebrates and planarians were recorded. Obama ladislavii fed on the introduced land gastropods Bradybaena similaris, Helix aspersa and Deroceras laeve, ignoring other invertebrates. Once potential prey were identified, we tested the ability of O. ladislavii to recognize and follow slime trails, and demonstrated the planarian’s ability to follow chemical trails from prey in the environment. The consumption of exotic species indicates a flexible, generalist diet that is consistent with the ability of O. ladislavii to adapt to environments altered by human activities. Thus, this species may become invasive if introduced outside of its original distribution, but it also has the potential to be used in biological control programs for pest management in its native range. -
The Values of Soil Animals for Conservation Biology
Available online at www.sciencedirecl.com --" EUROPEAN JOURNAL Of -.;- ScienceDirect SOll BIOLOGY ELSEVIER European Journal of Soil Biology 42 (2006) S23-838 http://france.elsevier.comldirectlejsobi Original article The values of sail animaIs for conservation biology a b c b T. Decaëns ,*, II Jiménez , C. Gioia , G.J. Measeyb, P. Lavelle •Laboratoire d'écologie-ECOD/V, UPRES EA /293, université de Rouen, 76821 Mt Saint Aignan cedex, France b Laboratoire d'écologie des sols tropicaux, lRD, 32, Avenue Henri-Varagnat, 93143 Bondy cedex, France C Bureau d'élude AL/SE. 228, ZAC de la Forge-Seret, 76520 Boos, France Available online 21 July 2006 Abstract It has taken time for the international community to accept the idea of biodiversity values, a concept which had previously been restricted to the limited aesthetic and touristic aspects ofwildlife. This situation changed following the International Convention on Biodiversity in Rio de Janeiro (1992), which focussed on "the forgotten environmental problem" ofbiodiversity erosion and made the first clear reference to the values of living species. Biodiversity values refer to direct or indirect, economic or non-economic interest, a given species or ecosystem may represent for human populations. These values are generally split into intrinsic and instrumental (use) values, the last category itself being divided into direct and indirect economic values. Obviously, each of these values cames different weights, and cannot be considered as being weighted equally in terms of justification for species or ecosystem conservation. Soil is probably one ofthe most species-rich habitats of terrestrial ecosystems, especially if the defmition is extended to related habitats like vertebrate faeces, decaying wood, and humus ofhollow trees (i.e. -
Platyhelminthes, Geoplanidae, Bipalium Spp., Diversibipalium Spp.) in Metropolitan France and Overseas French Territories
Giant worms chez moi! Hammerhead flatworms (Platyhelminthes, Geoplanidae, Bipalium spp., Diversibipalium spp.) in metropolitan France and overseas French territories Jean-Lou Justine1, Leigh Winsor2, Delphine Gey3, Pierre Gros4 and Jessica The´venot5 1 Institut de Syste´matique, E´volution, Biodiversite´ (ISYEB), Muse´um National d’Histoire Naturelle, Paris, France 2 College of Science and Engineering, James Cook University, Townsville, QLD, Australia 3 Service de Syste´matique Mole´culaire, Muse´um National d’Histoire Naturelle, Paris, France 4 Amateur Naturalist, Cagnes-sur-Mer, France 5 UMS Patrinat, Muse´um National d’Histoire Naturelle, Paris, France ABSTRACT Background: Species of the genera Bipalium and Diversibipalium, or bipaliines, are giants among land planarians (family Geoplanidae), reaching length of 1 m; they are also easily distinguished from other land flatworms by the characteristic hammer shape of their head. Bipaliines, which have their origin in warm parts of Asia, are invasive species, now widespread worldwide. However, the scientific literature is very scarce about the widespread repartition of these species, and their invasion in European countries has not been studied. Methods: In this paper, on the basis of a four year survey based on citizen science, which yielded observations from 1999 to 2017 and a total of 111 records, we provide information about the five species present in Metropolitan France and French overseas territories. We also investigated the molecular variability of cytochrome- oxidase 1 (COI) sequences of specimens. Submitted 16 November 2017 Results: Three species are reported from Metropolitan France: Bipalium kewense, 6 April 2018 Accepted Diversibipalium multilineatum, and an unnamed Diversibipalium ‘black’ species. We Published 22 May 2018 also report the presence of B.