DOCSLIB.ORG

Copyrighted Material

Total Page：16

File Type：pdf, Size：1020Kb

Download full-text PDF Read full-text

Load more

9781444332599_6_ind.qxd 11/4/09 14:12 Page 233 Index Abax parallelopepidus 159, 175 Abies balsamica 99 bait traps 25 Abroscelis anchoralis 55 bark beetles 18, 46, 89, 125 Aciphylla dieffenbachia 112, 113 Batrisodes texanus 114 accumulation curves 28 Beauveria 191 activity patterns 27 beetle banks 173–174 Adalia bipunctata 54, 190 beetlephilia 2 Aderidae 28 Bembidion atrocaeruleum 66 Adonis blue butterfly 133 bess beetles 5, 130 Adoretus 125 Betula pendula 85 adventitious species 128 biological control 7, 182, 189, 190 Agonum ericeti 93 Bledius 86 Agrilus 83 blind cave beetle 115 A. hyperici 189 Bolitophagus reticulata 26, 77 A. planipennis 127, 189 bracket fungus 26 Aleocharinae 116 brownfield sites 62, 117 alien species 92, 122–130 Brychius hungerfordi 62, 117 Allocasuarina 181, 182 Bubas bubalus 181 Amara tricuspidata 109 Buprestidae 3, 40, 83, 105, 133, 163 ambrosia beetles 125 burning 84, 153–155 American burying beetle 7, 67 bycatch 121 Ammophorus insularis 112 Anophthalmus hitleri 74 Calathus ruficollis 120 Anoplophora glabripennis 26, 126 Callitris glaucophylla 93 ants 116, 128 Calluna 96 Aphis fabae 191 COPYRIGHTEDcanestriniid MATERIAL mites 129 Aphodius 177, 178, 185 canopy fogging 10, 80 A. fossor 186 Cantharidae 40, 133 A. pusillus 186 Cantharoidea 133 aquifers 10 Canthon acutus 20 Argentine ant 128 captive breeding 142–145 Asian longhorn 26 Carabidae 2, 6, 7, 8, 10, 13, 14, 15, 20, assemblages 4, 9, 18, 50, 68, 69, 73, 80, 165 24, 28, 43, 44, 47, 50, 51, 58, 64, 68, Atomaria alpina 51 73, 76, 78, 86, 87, 93, 94, 99, 102, A. subangulata 157 108, 109, 114, 116, 124, 126, 128, attractants 25 132, 133, 135, 146, 147, 149, 150, avermectins 132 154, 165, 200 9781444332599_6_ind.qxd 11/4/09 14:12 Page 234 234 Index Carabus auronitens 64, 66, 68, 100, 144 Coptodactylus subaenea 182 C. cancellatus 99, 152 core species 32, 44 C. coriaceus 66 Cretaceous 1 C. granulatus 103 Cromwell chafer 57 C. intricatus 77, 93 Cryphalus saltuarius 89 C. nemoralis 103 Cryptophagidae 157 C. nitens 95, 97 Curculionidae 46, 73, 81, 126 C. variolosus 67, 138 Curculionoidea 1, 8, 19 Carduus 127 Cyrtophorus verrucosus 193 Caretta caretta 53 Carphina arcifera 192 Dactylus glomerata 174 carrion beetles 7, 98 Darwin’s darkling beetle 112 Castanopsis acuminatissima 32 databases 40 caves 37, 113, 114 Delta green ground beetle 36 Cecropia 31 Dendrocopus leucotos 174 Centaurea diffusa 189 Dendroctonus 46 Cephalodesmius 179 D. frontalis 26, 46 Cerambycidae 8, 15, 31, 35, 38, 45, 73, 82, D. ponderosae 3, 61, 134. 135 85, 105, 133, 153, 155, 192–194, 195 Desmocerus californicus 56, 163, 192 Cerambyx cerdo 36, 45 Diacheila arctica 135 Cervus sika 185 Dicheirotrichus 86 Cetoniinae 38 Dineutes assimilis 166 Charadrius melodus 141 dispersal 63, 110, 111, 124 Chlaenius micans 171 distribution recording 39, 74 Chrysocarabus olympiae 144, 146 diversity 7, 201 Chrysomelidae 8, 77, 81, 116, 127, DNA 10, 55 150, 155 dominant species 52 Chrysomeloidea 1 Dorcadium fuliginator 67 Cicindela deserticoloides 34 Dorcus antaeus 119 C. dorsalis 140 D. curvidens 120 C. patruela 155 D. titanus 120 C. puritana 56, 131, 141 Dryophthoridae 199 C. tranquebarica 7 dung beetles 3, 6, 7, 20, 30, 32, 35, 52, 53, Cicindelidae 2, 55 105, 106, 110, 132, 136, 176–186, 203 Cicindelinae 2, 54 Dutch elm disease 130 Cicinus bruchi 5 Dyschirius globosus 99 Circellium bacchus 74, 100 dytiscid water beetles 6, 10, 114 Cirsium 127 Dytiscidae 114, 165–168 C. arvense 128 C. canescens 128 eclector traps 24 C. undulatum 128 ecological categories 4 Citrus 191 ecological collections 39 Clarias gaveipennis 166 ecotones 88 click beetles 74 Ectemnophorus 111 climate change 72 edge effects 88, 93 Coccinella novempunctata 190 Elaphrus viridis 36 C. septempunctata 190 Elater ferrugineus 74 Coccinellidae 3, 54, 189–193 Elateridae 53, 73, 82, 199 Coffin Cave mold beetle 114 elephant dung beetle 3, 74, 100 collecting 15, 117–120 Elmidae 165 Colophon 120, 188, 189 endemism 112 Conolophus subcristatus 53 Enochrus bicolor 168 conservation plans 195–207 E. diffusus 168 conservation status 34 Eucalyptus 169, 181, 182 Copris 132 E. obliqua 151 C. pristinus 6 Eucnemidae 199 9781444332599_6_ind.qxd 11/4/09 14:12 Page 235 Index 235 Euoniticellus intermedius 132 H. rufipes 174 European Habitats Directive 45 H. simplicidens 171 Eurylachnus blagravei 95 Helophoridae 165 evolutionarily significant units 54, 56 Holcaspis brevicula 123 exposed riverine sediments 80, 87, 150, Hoplogonus 186 171, 199 H. bornemisszai 188 extinctions 5, 6 H. simsoni 151, 187, 188 H. vanderschoori 188 fairy shrimp hunting beetle 5 Holocene 72 fenlands 18 Hungerford’s crawling water beetle 62, 117 feeding guilds 9, 11 Hyalurgops pallictus 127 fire 147, 153–155 Hybomorpus melanosomus 6 fireflies 2, 26 hybridisation 120 flightlessness 10, 42, 111, 112, 170, 176 Hydradephaga 165 Fomes 26, 77 Hydrochidae 165 F. fomentarius 77, 82 Hydrophilidae 165, 168 forestry 18, 33, 43, 82, 83, 92, 105, 151, Hydrophilus piceus 166 155–161, 184 Hydroscaphidae 165 Formica aquilonia 116 Hygrobiidae 165 F. polyctena 116 Hylotrupes bajulus 38 fossils 5, 72 Hypericum perforatum 189 fragmentation 90, 93, 94, 96, 99 Fraxinus 189 Icerya purchasi 191 Frégate island tenebrionid 142 Ida Bay cave beetle 115 functional groups 69 Idacarabus troglodytes 115 fungus disease 129, 156, 191 identification 12 Ips typographus 3, 156 gas chromatography 25 indicators 49, 51 Gehringia 168 IndVal 57 Genji firefly 2 industrial sites 107 Geodorcus 186 insecticides 131 Georissidae 165 intertidal zone 10 Geotrupes 132 islands 7, 123 Globenet 102 IUCN categories 35 Goedetrechus medumae 115 gradients 101 Jekelius 35 grasslands 70 jewel beetles 38, 189 grazing 149, 150 ground beetles 20, 31, 41, 69, 709, 77, kairomones 74 115, 168–176 kanuka 123 Gryllus campestris 139 Ketschmarr Cave mold beetle 114 Gyrinidae 165, 166 Kunzea ericoides 123 habitat fragments 90 ladybirds 3, 54, 189–193 Hadramphus spinipennis 112 Laemostenus complanatus 128 Haliplidae 117, 165 Lampyridae 2, 26 halobionts 86 Lamprima insularis 118 Haploscapanes barbarosssa 9 land iguana 53 Harlequin beetle 46 Landelater sallei 53 Harlequin ladybird 122 Larinus planus 127, 128 Harmonia axyridis 122, 190, 191 Larix kaemferi 73 Harpalus 37, 199 larvae 14, 82 H. cordatus 199 legislation 6 H. froelichi 109 Leiodidae 114 H. griseus 109 life forms 48 H. parallelus 199 Lilioceris lilii 127 9781444332599_6_ind.qxd 11/4/09 14:12 Page 236 236 Index lily leaf beetle 127 Olympic ground beetle 144 Limax marginatus 77 Omorgus suberosus 53 Limoniscus violaceus 199 Onitis 132 Limulodidae 116 O. alexis 132 Linepithima humile 128 Onthophagus 180 Liocola lugubris 36 O. everestae 6 Lissotes 186 O. ruficapillus 180 L. latidens 186, 187 O. similis 132 L. menalcus 151 Ophiostoma novo-ulmi 129 listing species 37, 58 organophosphates 52 longhorn beetles 192–194 Osmoderma eremita 25, 65, 66, 67, 74, Lophyridia concolor 171 84, 197 Loxomerus 124 outbreaks 3, 61 Lucanidae 2, 15, 37, 39, 83, 118, 119, Oxytelinae 69 153, 186–189 Lucanus cervus 25, 36, 39, 60, 66, 186, parasites 129 195, 198 Passalidae 5, 79, 130 Luciola cruciata 2 Paussinae 116 Lysandra bellargus 133 pheromones 25, 74 Phoracantha semipunctata 125 mapping schemes 13, 41 Phytobaenus amabilis 28 mark-release-recapture 20, 66 Picea abies 85 Mecodema costellum 58 P. mariana 105 M. laeviceps 58 P. sitchensis 160 M. punctellum 6 Pidonia 194 Mecyclothorax 129 Pimelea 55 Megadromus 58 P. fernandezlopezi 55 Melanophila 189 pinhole borer 2 Melyridae 199 Pinus 46 Metacolpodes buchanani 128 P. contorta 61 metapopulation 66, 113, 141 P. radiata 5, 94, 123 microclimate 82, 89 pitfall traps 20, 24, 51, 93, 155, 171 Microsporidae 165 Pityogenes chalcographus 126 Miocalles 86 Platynini 128 mites 129 Platynus mannerheimii 92 monitoring 109, 197 Platypodidae 2 Monochamus 192 Platypus cylindrus 2 morphospecies 19, 31, 93 Pleistocene fossils 6, 35 mountain pine beetle 3, 61, 134 Pogonus 86 mowing 103 Polposipus herculeanus 142 Mt Mangana stag beetle 151 Polyporus 72 mycelium 82 population monitoring 25 myrmecophiles 116 population structure 63 Populus tremula 158 Nebria brevicollis 174 P. tremuloides 83, 105 Neomida haemorrhoidalis 28 Prismognathus acuticollis 83 Neosema kuscheli 192 Proculus 5 Nicrophorus americanus 7, 67, 97, 137, Prodontria 55, 57 140, 145, 146 P. lewisii 55, 57 N. defodiens 98 P. modesta 55 N. marginalis 97 Propylea quatuordecimpunctata 190 N. orbicollis 97 Pselaphinae 114, 116 N. tomentosus 98 Pseudanophthalmus 114 Noteridae 165 Psydrini 24 Notonomus resplendens 95 Pterostichus adstrictus 88 N. variicollis 95 P. cupreus 66, 175 9781444332599_6_ind.qxd 11/4/09 14:12 Page 237 Index 237 P. melanarius 103, 124, 127, 174 Size 13 P. niger 174 SMART objectives 60, 196 Ptiliidae 116 snags 82, 105, 153 Puritan tiger beetle 131, 141 Solenopsis invicta 114 Pythidae 76 southern pine beetle 26, 46 Pytho kolwensis 76, 82 species rarity score 44 species turnover 10 Quaternary fossils 5, 135 Spercheidae 156 Quercus 197 Sphagnum 92 Sphenoptera jugoslavica 189 radiotelemetry 175 spruce bark beetle 156 rats 92 stag beetles 39, 60, 74, 118, 129, recording schemes 41 186–189 recovery plans 57 Staphylinidae 8, 47, 49, 69, 73, 74, 76, Red Data Book 36, 38, 45 86, 105, 114, 149, 155, 159, 165, 199 red imported fire ant 114 supertramps 110 Red List 35 surveys 44, 94 red-listed beetles 28, 35, 77 regional endemics 7 taxonomic impediment 12 re-introductions 138 taxonomy 11, 15 remote sensing 30, 145 telemetry 66, 67 reserves 147 Tenebrionidae 7, 10, 26, 28, 53, 55, 77, Rhadine persephone 115 112, 124, 142 Rhantus frontalis 168 Texamaurops
Recommended publications
  • Ivermectin Residues Disrupt Dung Beetle Diversity, Soil Properties and Ecosystem Functioning: an Interdisciplinary field Study

    Ivermectin Residues Disrupt Dung Beetle Diversity, Soil Properties and Ecosystem Functioning: an Interdisciplinary field Study

    Science of the Total Environment 618 (2018) 219–228 Contents lists available at ScienceDirect Science of the Total Environment journal homepage: www.elsevier.com/locate/scitotenv Ivermectin residues disrupt dung beetle diversity, soil properties and ecosystem functioning: An interdisciplinary field study José R. Verdú a,⁎, Jorge M. Lobo b, Francisco Sánchez-Piñero c, Belén Gallego a, Catherine Numa d, Jean-Pierre Lumaret e, Vieyle Cortez a, Antonio J. Ortiz f,MattiaTonellia, Juan P. García-Teba a, Ana Rey b, Alexandra Rodríguez g, Jorge Durán g a I.U.I. CIBIO, Universidad de Alicante, Alicante E-03690, Spain b Department of Biogeography and Global Change, Museo Nacional de Ciencias Naturales-CSIC, José Abascal 2, Madrid E-28006, Spain c Departamento de Zoología, Universidad de Granada, Granada E-18071, Spain d IUCN-Centre for Mediterranean Cooperation, Marie Curie 22, Campanillas, Málaga E-29590, Spain e UMR 5175 CEFE, CNRS - Université de Montpellier - Université Paul-Valéry Montpellier 3 – EPHE, Université Paul-Valéry Laboratoire Zoogéographie, Route de Mende, 34199 cedex 5 Montpellier, France f Departamento de Química Inorgánica y Química Orgánica, Universidad de Jaén, Campus Las Lagunillas, Jaén E-23071, Spain g Center for Functional Ecology (CEF), Department of Life Sciences, University of Coimbra, Calçada Martim de Freitas, 3000-456 Coimbra, Portugal HIGHLIGHTS GRAPHICAL ABSTRACT • At the short term, ivermectin residues cause a strong decrease in dung reloca- tion and dung spreading by dung beetles. • Conventional use of ivermectin disrupts diversity by affecting species richness, abundance and biomass of dung beetles. • Reduction in the functional efficiency of dung degradation resulted in the long- term accumulation of manure.
  • A Chromosomal Analysis of 15 Species of Gymnopleurini, Scarabaeini and Coprini (Coleoptera: Scarabaeidae)

    A Chromosomal Analysis of 15 Species of Gymnopleurini, Scarabaeini and Coprini (Coleoptera: Scarabaeidae)

    A chromosomal analysis of 15 species of Gymnopleurini, Scarabaeini and Coprini (Coleoptera: Scarabaeidae) R. B. Angus, C. J. Wilson & D. J. Mann The karyotypes of one species of Gymnopleurini, two Scarabaeini, five Onitini and seven Coprini are described and illustrated. Gymnopleurus geoffroyi, Scarabaeus cristatus, S. laticollis, Bubas bison, B. bubalus, B. bubaloides, Onitis belial, O. ion, Copris lunaris, Microcopris doriae, M. hidakai and Helopcopris gigas all have karyotypes with 2n=18 + Xy. Copris hispanus and Paracopris ����������ramosiceps have karyotypes with 2n=16 + Xy and Copris sinicus has a karyotype comprising 2n=12 + Xy. Heterochromatic B-chromosomes have been found in Bubas bubalus. Spanish material of Bubas bison lacks the distal heterochromatic blocks found in most of the chromosomes of Italian specimens. The karyotype of Heliocopris gigas is unusual in that the autosomes and X chromosome are largely heterochromatic. R. B. Angus* & C. J. Wilson, School of Biological Sciences, Royal Holloway, University of London, Egham, Surrey TW20 0EX, UK. [email protected] D. J. Mann, Hope Entomological Collections, Oxford University Museum of Natural History, Parks Road, Oxford OX1 3PW, UK. [email protected] Introduction of chromosome preparation and C-banding are given A previous publication (Wilson & Angus 2005) gave by Wilson (2001). In some cases it has been possible information on the karyotypes of species of Oniticel- to C-band preparations after they have been photo- lini and Onthophagini studied by C. J. Wilson in her graphed plain, giving a very powerful set of data for Ph. D. research (Wilson 2002). The present paper re- preparation of karyotypes.
  • 13. Els Coleòpters Del Delta Del Llobregat. Aproximació Històrica I Noves Aportacions

    13. Els Coleòpters Del Delta Del Llobregat. Aproximació Històrica I Noves Aportacions

    13. ELS COLEÒPTERS DEL DELTA DEL LLOBREGAT. APROXIMACIÓ HISTÒRICA I NOVES APORTACIONS Miguel Prieto Manzanares1 1. Museu de Ciències Naturals de Barcelona. delta-llobregat.indb 407 12/12/2018 16:51:22 408 ELS SISTEMES NATURALS DEL DELTA DEL LLOBREGAT 13.1. INTRODUCCIÓ Els treballs esmentats no es limiten a una llista taxonòmica, sinó que també inclouen El valor natural del delta del Llobregat va ser informació sobre l’hàbitat i la biologia de les reconegut ben aviat pels entomòlegs, que des espècies. Mateu (1947), en particular, ofereix de mitjan segle xix van freqüentar la zona una descripció exhaustiva del territori i el per a la recol·lecció i l’estudi dels coleòpters. seus ecosistemes a propòsit de l’estudi de la La proximitat amb els nuclis metropolitans família dels caràbids (de la qual va citar gai- de les comarques del Baix Llobregat i el Bar- rebé 150 espècies). Amb vocació conserva- celonès, especialment amb la ciutat de Barce- cionista, aquest i altres entomòlegs alerten de lona, va afavorir la presència dels naturalis- la degradació i l’empobriment del Delta cau- tes, atrets per la gran diversitat d’hàbitats, sats pel creixement industrial i la urbanitza- aleshores inalterats o sotmesos a transforma- ció, ja evidents en aquella època (Mateu, cions incipients. El primer catàleg de coleòp- 1947; Español, 1949a; Lagar, 1967a, 1970 i ters de Catalunya (Cuní Martorell i Martorell 1976; Lagar i Lucas, 1981). A partir del anys Peña, 1876) recull, de fet, nombrosos regis- setanta disminueixen els estudis sobre els co- tres de la desembocadura del Llobregat i leòpters de la zona, coincidint amb un nou àrees adjacents, la majoria corresponents a impuls en els plans de desenvolupament, localitats clàssiques de l’hemidelta esquerre.
  • (Coleoptera: Carabidae) from Madeira Island

    (Coleoptera: Carabidae) from Madeira Island

    New data on the spatial distribution of endemic ground beetles (Coleoptera: Carabidae) from Madeira Island MÁRIO BOIEIRO, MAB STUDY GROUP* & ARTUR R.M. SERRANO Boieiro, M., MAB Study Group & A.R.M. Serrano (in press). New data on the spatial distribution of endemic ground beetles (Coleoptera: Carabidae) from Madeira Island. Arquipelago. Life and Marine Sciences 29: 15-23. Based on standardised sampling methods covering a large fraction of native forest on Ma- deira Island, new distribution data is reported for 33 species of endemic ground beetles. Most of these species have been found in new localities and their distribution range is now better known. Dromius angustus alutaceus Wollaston, 1857 was "rediscovered" after more than fifty years since the last known record and two rare Philorhizus species (P. conicipen- nis (Fauvel, 1905) and P. vieirai Mateu, 1957) were also located. Furthermore, two other arboreal endemics (Olisthopus ericae Wollaston, 1854 and O. maderensis Wollaston, 1854) were recorded from many new localities. This work represents a considerable improvement of the knowledge on the distribution of ground beetle species endemic to Madeira, hence contributing to future management plans targeting the conservation of endemic biota. Key words: island biodiversity, Laurisilva, Macaronesia, endemic rare species Mário Boieiro (e-mail: [email protected]) & Artur R.M. Serrano, Centro de Biologia Am- biental, Departamento de Biologia Animal, Faculdade de Ciências da Universidade de Lis- boa,Ed. C2, 2º Piso, Campo Grande, PT-1749-016 Lisboa, Portugal. *MAB Study Group – Madeiran Arthropod Biodiversity Study Group: Carlos Aguiar, Carla Barrinha & Israel de Faria e Silva, Centro de Biologia Ambiental, Departamento de Biologia Animal, Faculdade de Ciências da Universidade de Lisboa, Ed.
  • The Case of Woody Vegetation Patchiness and Beetle

    The Case of Woody Vegetation Patchiness and Beetle

    Ben-Gurion University of the Negev Jacob Blaustein Institute for Desert Research Albert Katz International School for Desert Studies Linking Landscape and Species Diversities: The Case of Woody Vegetation Patchiness and Beetle Species Turnover Thesis submitted in partial fulfillment of the requirements for the degree of “Master of Science” By Yuval Berger February 2006 Ben-Gurion University of the Negev Jacob Blaustein Institute for Desert Research Albert Katz International School for Desert Studies Linking Landscape and Species Diversities: The Case of Woody Vegetation Patchiness and Beetle Species Turnover Thesis submitted in partial fulfillment of the requirements for the degree of “Master of Science” By Yuval Berger Under the Supervision of: Prof. Moshe Shachak Marco and Louise Mitrani Department of Desert Ecology Dr. Elli Groner Marco and Louise Mitrani Department of Desert Ecology Author’s Signature………………………………….. Date……………………. Approved by Supervisor……………………………. Date……………………. Approved by Supervisor……………………………. Date……………………. Approved by the Director of the School …………… Date……………………. Table of contents Acknowledgements iii Abstract vi List of Figures vii List of Tables xi 1. Introduction 1 Conceptual framework for discussing biodiversity 1 Landscape Diversity 2 Species diversity 3 Environmental factors, landscape diversity and species turnover 4 Ecosystem engineers 8 Woody vegetation as ecosystem engineers 12 Purpose of this work 15 Hypotheses 16 2. Filtering as a linkage between patchiness and species turnover – theoretical considerations 17 Definitions 17 The model 20 3. Methods 26 Experimental design 26 Focal group and specimen identification 30 Study sites 30 Scale definition 33 i Dominance 34 Patch contrast 34 Assemblage contrast 35 General Patterns 43 4. Results 44 Dominance 44 Sunfleck contrast 50 Assemblage contrast 56 5.
  • Annales 2014 Volume

    Annales 2014 Volume

    ANNALES de la SOCIÉTÉ D’HORTICULTURE et D’HISTOIRE NATURELLE de L’HÉRAULT Volume 154 Année 2014 Annales SHHNH - Vol. 154 ANNALES DE LA SOCIÉTÉ D'HORTICULTURE ET D'HISTOIRE NATURELLE DE L'HÉRAULT Reconnue d'utilité publique par décret du 14 avril 1933 C.C.P. Montpellier 628-95 K Présidence : M. Daniel Mousain, 11 rue Démians - 30000 Nîmes, tél. pers. 04 66 67 81 88/06 27 25 29 66. Siège social : Parc à Ballon 1, bât. B - 125 rue du Moulin de Sémalen - 34000 Montpellier. Adresse postale : SHHNH, Parc à Ballon 1, bât. B - 125 rue du Moulin de Sémalen - 34000 Montpellier. Site internet : http://www.shhnh.com et adresse électronique : [email protected]. Téléphone du local : 04 67 99 05 36 (message délivré). Activités : sorties, conférences, documentation, expositions, participation à des manifestations. Les sections se réunissent régulièrement (sauf juillet et août). Sauf indications contraires, les diverses activités ont lieu au local, 125, rue du Moulin de Sémalen, Parc à Ballon 1, bât. B (à droite en entrant, au rez-de-chaussée). Elles sont por- tées sur les tableaux d'affichage au local et sur le site internet. Botanique / horticulture : déterminations au local de la Société, le lundi après-midi, conférences, excursions. Contacts M. Jean-Marie Coste, 04 67 92 53 92 / [email protected] et M. Frédéric Andrieu, 04 99 23 22 11 /[email protected]. Entomologie : réunions et sorties. Réunion le premier mardi de chaque mois, au local. Contacts M. Gérard Duvallet / [email protected] et/ou M. Jacques Taïb / [email protected] Géologie : des sorties sont organisées sous la direction de différents intervenants.
  • Coastal Sage Scrub at University of California, Los Angeles

    Coastal Sage Scrub at University of California, Los Angeles

    BIOLOGICAL ASSESSMENT: COASTAL SAGE SCRUB AT UNIVERSITY OF CALIFORNIA, LOS ANGELES Prepared by: Geography 123: Bioresource Management UCLA Department of Geography, Winter 1996 Dr. Rudi Mattoni Robert Hill Alberto Angulo Karl Hillway Josh Burnam Amanda Post John Chalekian Kris Pun Jean Chen Julien Scholnick Nathan Cortez David Sway Eric Duvernay Alyssa Varvel Christine Farris Greg Wilson Danny Fry Crystal Yancey Edited by: Travis Longcore with Dr. Rudi Mattoni, Invertebrates Jesus Maldonado, Mammals Dr. Fritz Hertel, Birds Jan Scow, Plants December 1, 1997 TABLE OF CONTENTS CHAPTER 1: INTRODUCTION ..........................................................................................................................1 CHAPTER 2: PHYSICAL DESCRIPTION ........................................................................................................2 GEOLOGICAL FRAMEWORK.....................................................................................................................................2 LANDFORMS AND SOILS ..........................................................................................................................................2 The West Terrace ...............................................................................................................................................3 Soil Tests.............................................................................................................................................................4 SLOPE, EROSION, AND RUNOFF ..............................................................................................................................4
  • B.ERM.0213 Final Report - Importation of 2 Winter-Spring Active Dung Beetles for Southern Australia

    B.ERM.0213 Final Report - Importation of 2 Winter-Spring Active Dung Beetles for Southern Australia

    final report Project code: B.ERM.0213 Prepared by: Dr Jane Wright, Mr Patrick Gleeson and Ms Freya Robinson Commonwealth Scientific and Industrial Research Organisation (CSIRO) Date published: March 2015 ISBN: 9781741919356 PUBLISHED BY Meat & Livestock Australia Limited Locked Bag 991 NORTH SYDNEY NSW 2059 ished by Importation of 2 winter-spring active dung beetles for southern Australia Meat & Livestock Australia acknowledges the matchingmatching funds provided by the AustralianAustralian Government to support the research and developmedevelopmentnt detaileddetailed in this publication. 1.1.1.1.1.101.1.1.1.1.91.1.1.1.1.61.1.1.1.1.51.1.1.1.1.81.1.1.1.1.71.1.1.1.1.41.1.1.1.1.31.1.1.1.1.21.1.1.1.1.1 This publication is published by Meat & Livestock AustraliaAAustustraliaralia Limited ABN 39 081 678 364 (MLA). Care is taken to ensure the accuracy of the information contained in this publication. However MLA cannot accept responsibility for the accuracy or completenesscompleteness of the information or opinions contained in the publication.publpublicaication.tion. You should make your ownown enquiries before making decisions concerning your interests.interests. Reproduction in whole or in part of this publication is prohibited without priorpriopriorr written consent of MLA. B.ERM.0213 Final Report - Importation of 2 winter-spring active dung beetles for southern Australia Abstract Tunnelling and burial of dung by dung beetles improves water penetration, soil aeration, and movement of nutrients to the root zone, resulting in improved soil health and pasture growth. The lack of dung beetles in late winter and early spring represents an annual loss of 17-25% of that benefit in the main cattle grazing areas of temperate Australia.
  • Effects of Grazing Intensity and the Use of Veterinary Medical Products on Dung Beetle Biodiversity in the Sub-Mountainous Landscape of Central Italy

    Effects of Grazing Intensity and the Use of Veterinary Medical Products on Dung Beetle Biodiversity in the Sub-Mountainous Landscape of Central Italy

    A peer-reviewed version of this preprint was published in PeerJ on 12 January 2017. View the peer-reviewed version (peerj.com/articles/2780), which is the preferred citable publication unless you specifically need to cite this preprint. Tonelli M, Verdú JR, Zunino ME. 2017. Effects of grazing intensity and the use of veterinary medical products on dung beetle biodiversity in the sub- mountainous landscape of Central Italy. PeerJ 5:e2780 https://doi.org/10.7717/peerj.2780 Effects of grazing intensity and the use of veterinary medical products on dung beetle biodiversity in the sub-mountainous landscape of Central Italy Mattia Tonelli 1, 2 , José R. Verdú Corresp., 2 , Mario E. Zunino 1, 3 1 Department of Pure and Applied Science, University of Urbino, Urbino, Italy 2 I.U.I. CIBIO, Universidad de Alicante, Alicante, Spain 3 School of Biodiversity, Asti University Centre for Advanced Studies, Asti, Italy Corresponding Author: José R. Verdú Email address: [email protected] Grazing extensification and intensification are among the main problems affecting European grasslands. We analyze the impact of grazing intensity (low and moderate) and the use of veterinary medical products (VMPs) on the dung beetle community in the province of Pesaro-Urbino (Italy). Grazing intensity is a key factor in explaining the diversity of dung beetles. In the case of the alpha diversity component, sites with a low level of grazing activity – related in a previous step to the subsequent abandonment of traditional farming – is characterized by a loss of species richness (q = 0) and a reduction in alpha diversity at the levels q = 1 and q = 2.
  • M Ed Iter R a N E

    M Ed Iter R a N E

    THE CONSERVATION STATUS AND DISTRIBUTION OF MEDITERRANEAN DUNG BEETLES Catherine Numa, Mattia Tonelli, Jorge M. Lobo, José R. Verdú, Jean-Pierre Lumaret, Francisco Sánchez-Piñero, José L. Ruiz, Marco Dellacasa, Stefano Ziani, Alfonsina Arriaga, Francisco Cabrero, Imen Labidi, Violeta Barrios, Yakup Şenyüz and Sinan Anlaş MEDITERRANEAN The IUCN Red List of Threatened Species™ – Regional Assessment THE CONSERVATION STATUS AND DISTRIBUTION OF MEDITERRANEAN DUNG BEETLES About IUCN IUCN is a membership Union uniquely composed of both government and civil society organisations. It provides public, private and non-governmental organisations with the knowledge and tools that enable human progress, economic development and nature conservation to take place together. Created in 1948, IUCN is now the wor- ld’s largest and most diverse environmental network, harnessing the knowledge, resources and reach of 1,400 Member organisations and some 15,000 experts. It is a leading provider of conservation data, assessments and analysis. Its broad membership enables IUCN to fill the role of incubator and trusted repository of best practices, tools and international standards. IUCN provides a neutral space in which diverse stakeholders including govern- ments, NGOs, scientists, businesses, local communities, indigenous peoples’ organisations and others can work together to forge and implement solutions to environmental challenges and achieve sustainable development. Working with many partners and supporters, IUCN implements a large and diverse portfolio of
  • New Records and Detailed Distribution and Abundance of Selected Arthropod Species Collected Between 1999 and 2011 in Azorean Native Forests

    New Records and Detailed Distribution and Abundance of Selected Arthropod Species Collected Between 1999 and 2011 in Azorean Native Forests

    New records and detailed distribution and abundance of selected arthropod species collected between 1999 and 2011 in Azorean native forests Borges, Paulo A. V.; Gaspar, Clara; Crespo, Luís Carlos Fonseca; Rigal, François; Cardoso, Pedro; Pereira, Fernando; Rego, Carla; Amorim, Isabel R.; Melo, Catarina; Aguiar, Carlos; André, Genage; Mendonça, Enésima P.; Ribeiro, Sérvio; Hortal, Joaquín; Santos, Ana M. C.; Barcelos, Luís; Enghoff, Henrik; Mahnert, Volker; Pita, Margarida T.; Ribes, Jordi; Baz, Arturo; Sousa, António B.; Vieira, Virgílio; Wunderlich, Jörg; Parmakelis, Aristeidis; Whittaker, Robert J.; Quartau, José Alberto; Serrano, Artur R. M.; Triantis, Kostas A. Published in: Biodiversity Data Journal DOI: 10.3897/BDJ.4.e10948 Publication date: 2016 Document version Publisher's PDF, also known as Version of record Document license: CC BY Citation for published version (APA): Borges, P. A. V., Gaspar, C., Crespo, L. C. F., Rigal, F., Cardoso, P., Pereira, F., Rego, C., Amorim, I. R., Melo, C., Aguiar, C., André, G., Mendonça, E. P., Ribeiro, S., Hortal, J., Santos, A. M. C., Barcelos, L., Enghoff, H., Mahnert, V., Pita, M. T., ... Triantis, K. A. (2016). New records and detailed distribution and abundance of selected arthropod species collected between 1999 and 2011 in Azorean native forests. Biodiversity Data Journal, 4, [e10948]. https://doi.org/10.3897/BDJ.4.e10948 Download date: 28. Sep. 2021 Biodiversity Data Journal 4: e10948 doi: 10.3897/BDJ.4.e10948 Taxonomic Paper New records and detailed distribution and abundance of selected arthropod species collected between 1999 and 2011 in Azorean native forests Paulo A.V. Borges‡‡, Clara Gaspar , Luís Carlos Fonseca Crespo§,‡, François Rigal |,‡, Pedro Cardoso¶, ‡, Fernando Pereira‡‡, Carla Rego , Isabel R.
  • Liste De Référence Des Coléoptères D'alsace 12-XI-2016

    Liste De Référence Des Coléoptères D'alsace 12-XI-2016

    H. Callot. Liste de référence des Coléoptères d'Alsace. Version du 12-XI-2016 - Société Alsacienne d'Entomologie LISTE DE REFERENCE DES COLEOPTERES D'ALSACE CHECK-LIST OF THE COLEOPTERA OF ALSACE Henry CALLOT 3, rue Wimpheling 67000 Strasbourg [email protected] Dernière mise à jour / Last updating : 12-XI-2016 (précédente version 1-XII-2015) Citation : CALLOT H. Liste de référence des Coléoptères d'Alsace. Société Alsacienne d'Entomologie - www.societe-alsacienne-entomologie.fr - version du 12-XI-2016 p. 1-106 - date de consultation. Sommaire / Contents Remerciements / Acknowledgments Avant-propos / Foreword Liste de référence / Check-list Références / References Remerciements De nombreux collègues ont participé à des degrés très divers à l'établissement de cette liste. En tête il faut citer Francis MATT dont la contribution - relecture critique, corrections, suggestions - est majeure. Merci aussi à tous les autres (par ordre alphabétique) qui au départ ont participé à la rédaction des catalogues régionaux, puis, au cours de l'établissement de la liste, ont relu, répondu rapidement à des demandes de renseignements et donné des "coups de main" de toutes natures et avec beaucoup de bonne volonté : Armel ARTÉRO, André ASTRIC, Gérard BAUMGART, Christophe BRUA, Julien DABRY, Christian DOLLÉ, Jean-François FELDTRAUER, Ludovic FUCHS, Lucien GANGLOFF (✝ 2015), Michael HASSLER, Bernard JUNGER, Denis KEITH, Winfried KUNZ, José MATTER, Jean-Pierre RENVAZÉ, Claude SCHOTT. Merci à Marie MEISTER qui a mis en forme la version anglaise de l'introduction de cette liste. Important. Appel à corrections et compléments à cette liste Comme il y a certainement des lacunes dans la liste des espèces comme dans la liste bibliographique régionale, les lecteurs qui ont connaissance de données fiables pour des espèces supplémentaires ou rencontré des publications oubliées sont invités à nous en communiquer la référence.