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Isopoda, Asellota) with Some Phylogenetic Considerations Concerning Asellota
Crustaceana 48 (2) 1985, E. J. Brill, Leiden A CONTRIBUTION TO THE GENERAL MORPHOLOGY OF PROTOJANIRIDAE (ISOPODA, ASELLOTA) WITH SOME PHYLOGENETIC CONSIDERATIONS CONCERNING ASELLOTA BY B. SKET Institut za biologijo, Univerza E. Kardelja v Ljubljani, p.p. 141, YU 61001 Ljubljana, Yugoslavia Since most representatives of the superfamily Gnathostenetroidoidea have been described only for "microtaxonomical" purposes, some important features and even peculiarities of the species and probably of the entire group have been overlooked. I took advantage of possessing a good sample of the comparatively very large representative, viz., Enckella lucei major Sket, 1982 (as well as some other species of the family Protojaniridae) to demonstrate some such features. Unfortunately, of the family Gnathostenetroididae I could study only specimens of an undescribed species from the Bahamas, while comparison with other representatives was possible only through illustrations. I abstained from comparing Enckella with the numerous and diverse Janiroidea, leaving this to a more versed student of that special group. I also abstained from discussing the remarkable idea about possible Asellotan nature of Microcerberidae (WageJe, J 980) which is anyway of little importance for the present subject. Cephalothorax ("head"). — With the exception of having two pairs of antennae, the Enckella's head bears greater resemblance to a prognathous in sect head than to an Asellid. The cephalic capsula is closed to a great extent, incorporating completely the first thoracomere. The capsula is closed and slightly sclerotised also behind the insertions of the maxillipeds, uniting them with the set of other mouth appendages. The clypeolabrum protrudes for wards, its inclination downwards is much less expressed than in most other groups of Isopoda. -
•Not! Ptdition, X:213-230
78 SMITHSONIAN CONTRIBUTIONS TO ZOOLOGY Carman, S. Knjyer, H. 1889. Cave Animal j from South we item Missouri. Bulle 1838. Gronlands Amphipoder. Kongelige danske viden* tin of the Museum of Comparative Zoology, skabernes Selskabbiologiske Skrifter, 7:229-326. 17(6):225-239. Latreille, P. A. Geoffrey Saint-Hilaire, E. L. 1803. Histoire naturelle, ginirale et particuliire, des 1764. Histoire abrigie dts Insectes qui se troitvcnt aux Cruslacis et dts Insectes, 6:1-391. Paris.* environs de Paris. Pari*.* Leonard, A. B,, and L. H. Ponder Gould, A. A, 1949. Crustacea of Eastern Kansas. Transactions of the 1841. Report on the Invertebrate Animals of Massachu Kansas Academy of Science, 52:168-204. setts. Cambridge: Massachusetts. Levi, H. W. Gruner, H. £. 1949. Two New Species of Cave Isopods from Pennsyl 1965. Die Tierwelt Deutschlands. Krebstiere oder Crus vania. Notulae Naturae, 220:1-fi. tacea. V, Isopoda. 53. Teil, 2 Lf. Jena. Linnaeus, C. Hansen, H. J. 1758. Systema Naturae. 10th Edition, 824 pages* 1888. Oversigt over det vestlige Gronlands Fauna. Mac Lin, J. G. Videnskabelige Meddeletier jra dansk Naturhis- 1940. A Key to the Oklahoma Species of the Family torisk Forening Kjobenhacn, 1887:177-198. Asellidae. Proceedings of the Oklahoma Academy Harford, W. G. W. of Science, 20:17-18. 1877. Description of a New Genus and Three New Spe Mackin, J. G, and L. Hubricht cies of Sessile Eyed Crustacea. Proceedings of the 1938. Records of Distribution of Species of Isopods in California Academy of Science, 7:53-55. Central and Southern United States, with Descrip Harger, O. tions of Four New Species of Mancasellus and 1874. -
Fauna of Brackish Polder Waters in Flanders (Belgium)
JOURNAL OF CRUSTACEAN BIOLOGY, 31(2): 270-277, 2011 SHIFTS IN THE GAMMARID (AMPHIPODA) FAUNA OF BRACKISH POLDER WATERS IN FLANDERS (BELGIUM) Pieter Boets, Koen Lock, and Peter L.M. Goethals (PB, correspondence, [email protected]; KL; PLMG) Laboratory of Environmental Toxicology and Aquatic Ecology, Ghent University, J. Plateaustraat 22, Ghent B-9000, Belgium ABSTRACT The macrocrustacean community of brackish polder waters in Flanders was investigated based on a twenty year survey comprising 430 biological samples taken at 218 different locations. A clear shift in the gammarid community could be observed. After its introduction, the alien Gammarus tigrinus, originating from North America, reached high abundances and became widely spread in the polder waters within a few years. Simultaneously, a decrease in the prevalence of the indigenous brackish water gammarids G. duebeni and G. zaddachi occurred. However, at the same time a decrease in the salinity of the polder waters also was observed. Uni- and multivariate data analysis revealed a clear difference in the environmental preferences of G. tigrinus, G. duebeni, and G. zaddachi. The alien species preferred lower salinities, lower orthophosphate concentrations, and a higher oxygen concentration compared to the two indigenous species. Besides the decrease in prevalence of the native gammarids, a decrease was also observed in prevalence of two other indigenous brackish water crustaceans: Palaemonetes varians and Neomysis integer. It appears that the decrease in salinity is the most important factor causing the decline of the indigenous gammarids and not the introduction of the alien G. tigrinus. KEY WORDS: alien species, Gammarus duebeni, Gammarus tigrinus, Gammarus zaddachi, salinity DOI: 10.1651/10-3357.1 INTRODUCTION introductions are critical components in the invasion process. -
Identification of Freshwater Invertebrates
Identification of Freshwater Invertebrates © 2008 Pennsylvania Sea Grant To request copies, please contact: Sara Grisé email: [email protected] Table of Contents A. Benthic Macroinvertebrates……………………….………………...........…………1 Arachnida………………………………..………………….............….…2 Bivalvia……………………...…………………….………….........…..…3 Clitellata……………………..………………….………………........…...5 Gastropoda………………………………………………………..............6 Hydrozoa………………………………………………….…………....…8 Insecta……………………..…………………….…………......…..……..9 Malacostraca………………………………………………....…….…....22 Turbellaria…………………………………………….….…..........…… 24 B. Plankton…………………………………………...……….………………............25 Phytoplankton Bacillariophyta……………………..……………………...……….........26 Chlorophyta………………………………………….....…………..........28 Cyanobacteria…...……………………………………………..…….…..32 Gamophyta…………………………………….…………...….…..…….35 Pyrrophycophyta………………………………………………………...36 Zooplankton Arthropoda……………………………………………………………....37 Ciliophora……………………………………………………………......41 Rotifera………………………………………………………………......43 References………………………………………………………….……………….....46 Taxonomy is the science of classifying and naming organisms according to their characteris- tics. All living organisms are classified into seven levels: Kingdom, Phylum, Class, Order, Family, Genus, and Species. This book classifies Benthic Macroinvertebrates by using their Class, Family, Genus, and Species. The Classes are the categories at the top of the page in colored text corresponding to the color of the page. The Family is listed below the common name, and the Genus and Spe- cies names -
Invasive Alien Species in Switzerland
> Environmental studies > Organisms 29 > Invasive alien species 06 in Switzerland An inventory of alien species and their threat to biodiversity and economy in Switzerland > Environmental studies > Organisms > Invasive alien species in Switzerland An inventory of alien species and their threat to biodiversity and economy in Switzerland Mit deutscher Zusammenfassung – Avec résumé en français Published by the Federal Office for the Environment FOEN Bern, 2006 Impressum Editor Federal Office for the Environment (FOEN) FOEN is an office of the Federal Department of Environment, Transport, Energy and Communications (DETEC). Authors Rüdiger Wittenberg, CABI Bioscience Switzerland Centre, CH–2800 Delémont Marc Kenis, CABI Bioscience Switzerland Centre, CH–2800 Delémont Theo Blick, D–95503 Hummeltal Ambros Hänggi, Naturhistorisches Museum, CH–4001 Basel André Gassmann, CABI Bioscience Switzerland Centre, CH–2800 Delémont Ewald Weber, Geobotanical Institute, Swiss Federal Institute of Technology, CH–8044 Zürich FOEN consultant Hans Hosbach, Head of Section, Section Biotechnology Suggested form of citation Wittenberg, R. (ed.) (2005) An inventory of alien species and their threat to biodiversity and economy in Switzerland. CABI Bioscience Switzerland Centre report to the Swiss Agency for Environment, Forests and Landscape. The environment in practice no. 0629. Federal Office for the Environment, Bern. 155 pp. Design Ursula Nöthiger-Koch, 4813 Uerkheim Fact sheets The fact sheets are available at www.environment-switzerland.ch/uw-0629-e Pictures Cover picture: Harmonia axyridis Photo Marc Kenis, CABI Bioscience, Delémont. Orders FOEN Documentation CH-3003 Bern Fax +41 (0)31 324 02 16 [email protected] www.environment-switzerland.ch/uw-0629-e Order number and price: UW-0629-E / CHF 20.– (incl. -
2 Biodiversity Value of Agricultural Drainage Ditches; a Comparative Analysis of the Aquatic Invertebrate Fauna of Ditches and Small Lakes 53
Drainage ditches, biodiversity hotspots for aquatic invertebrates Defining and assessing the ecological status of a man-made ecosystem based on macroinvertebrates The research presented in this thesis was conducted at Alterra in Wageningen, The Netherlands Alterra, part of Wageningen UR, 2012 Alterra Scientific Contributions 40 ISBN: 978-90-327-0397-4 Verdonschot, R.C.M., 2012. Drainage ditches, biodiversity hotspots for aquatic invertebrates. Defining and assessing the ecological status of a man-made ecosystem based on macroinvertebrates. Alterra Scientific Contributions 40, Alterra, part of Wageningen UR, Wageningen. Illustratie omslag: Isa Verdonschot, Carlijn Hulzebos Layout: Ralf Verdonschot, John Wiltink, Sylvia Kuster Foto’s: Ralf Verdonschot Drukwerk: Grafisch Service Centrum Van Gils B.V. Drainage ditches, biodiversity hotspots for aquatic invertebrates Defining and assessing the ecological status of a man-made ecosystem based on macroinvertebrates Proefschrift ter verkrijging van de graad van doctor aan de Radboud Universiteit Nijmegen op gezag van de rector magnificus prof. mr. S.C.J.J. Kortmann, volgens besluit van het college van decanen in het openbaar te verdedigen op donderdag 28 juni 2012 om 13:00 precies door Ralf Carsten Marijn Verdonschot geboren op 17 juni 1981 te Kampen Promotor: Prof. dr. H. Siepel Manuscriptcommissie: Prof. dr. J.G.M. Roelofs Prof. dr. D. Hering (Universiteit Duisburg-Essen, Essen) Prof. dr. K. Irvine (UNESCO-IHE Institute for Water Education) To my parents Graphoderus bilineatus (Coleoptera: Dytiscidae). -
(Crustacea: Asellidae) Part II
Int. J, Speleol. 5 (19'73), pr. 283-310. The Evolution of the Eastern North American Isopods of the Genus Asellus (Crustacea: Asellidae) Part II by LAURENCE E. FLEMING* This paper is the s,~cond in a three part series dealing with the evolution of North American isopods of the genus Aselllls. It contains a discussion of the generic status of Asellus, a generic diagnosis, a list of North American species, a key to North American species and the reduction to synonymy of certain nominal species of the genus Aselllls. I would like to thank Dr. Perry C. Hoi t for reviewing this manuscript and Mrs. Patty Lady for typing this manuscript. DETERMINATION OF THE GENERIC STATUS OF ASELLUS The following discussion will be concerned with opinions, theories and works of some European and Asiatic workers on the asellids. It should be noted that these references will, of necessity, be rather incomplete. Much of their work is not applicable to the ec,stern North American fauna and only those papers that have a direct bearing on the North American forms will be mentioned. The family Asellidae is cosmopolitan in distribution and was formerly considered to be composed of five genera of which two are found in eastern North America: Aselllls (worldwide in distribution) and LircellS (restricted to eastern North America). In 1962, K. Matsumoto of Japan separated the members of the genus Asellus found in Japan into three genera (Asellus s. str.,Nipponasellus nov. gen. and Uenasellus nov. gen.). Henry and Magniez (I 968a) stated that the genus Asellus, as understood by most European or American authors, is an accumulation of species, some of which appear to be unrelated to the others. -
Native and Exotic Amphipoda and Other Peracarida in the River Meuse: New Assemblages Emerge from a Fast Changing Fauna
Hydrobiologia (2005) 542:203–220 Ó Springer 2005 H. Segers & K. Martens (eds), Aquatic Biodiversity II DOI 10.1007/s10750-004-8930-9 Native and exotic Amphipoda and other Peracarida in the River Meuse: new assemblages emerge from a fast changing fauna Guy Josens1,*, Abraham Bij de Vaate2, Philippe Usseglio-Polatera3, Roger Cammaerts1,4, Fre´de´ric Che´rot1,4, Fre´de´ric Grisez1,4, Pierre Verboonen1 & Jean-Pierre Vanden Bossche1,4 1Universite´ Libre de Bruxelles, Service de syste´matique et d’e´cologie animales, av. Roosevelt, 50, cp 160/13, B-1050 Bruxelles 2Institute for Inland Water Management & Waste Water Treatment, Lelystad, The Netherlands 3Universite´ de Metz, LBFE, e´quipe de De´moe´cologie, av. Ge´ne´ral Delestraint, F-57070 Metz 4Centre de Recherche de la Nature, des Foreˆts et du Bois, DGRNE, Ministe`re de la Re´gion wallonne, Avenue Mare´chal Juin, 23, B-5030 Gembloux (*Author for correspondence: e-mail: [email protected]) Key words: aquatic biodiversity, alien species, invasive species, invasibility, community dynamics, Dikerogammarus villosus, Chelicorophium curvispinum Abstract Samples issued from intensive sampling in the Netherlands (1992–2001) and from extensive sampling carried out in the context of international campaigns (1998, 2000 and 2001) were revisited. Additional samples from artificial substrates (1992–2003) and other techniques (various periods) were analysed. The combined data provide a global and dynamic view on the Peracarida community of the River Meuse, with the focus on the Amphipoda. Among the recent exotic species found, Crangonyx pseudogracilis is regressing, Dikerogammarus haemobaphes is restricted to the Condroz course of the river, Gammarus tigrinus is restricted to the lowlands and seems to regress, Jaera istri is restricted to the ‘tidal’ Meuse, Chelicorophium curvispinum is still migrating upstream into the Lorraine course without any strong impact on the other amphipod species. -
Appendix 6 Plots of Absolute Diversification Age Estimates (Ma
Morvan et al. Timetree of Aselloidea reveals species diversification dynamics in groundwater Appendix 6 Appendix 6 Plots of absolute diversification age estimates (Ma) for different Bayesian relaxed molecular clock models. Left and right panels correspond to data sets inferred by the GMYC method and thresh- old method, respectively. Age estimates along the X-axis are from the uncorrelated lognormal model (BEAST), whereas dating estimates along the Y-axis in the upper and lower panels are from the uncor- related exponential model (BEAST) and the correlated lognormal model (Multidivtime), respectively. Solid lines show linear regressions between age estimations for the different models, and dotted lines in- dicate 1:1 equivalence relationships. Error bars represent 95% posterior density (HPD) intervals for each node. Dating estimates were plotted for 20 benchmark clades spanning Aselloidea diversity: Aselloidea crown group diversification, Asellidae crown group diversification, Stenasellidae crown group diversifica- tion, Bragasellus/Synasellus/Lirceolus/Gallasellus/Caecidotea/Remasellus crown group diversification, Proasellus crown group diversification, divergence between Mexistenasellus coahuila and Stenasellus gal- hanoe, divergence between Proasellus coxalis lineage and Proasellus Alpine/Ibero-aquitanian lineages, divergence between Proasellus Alpine lineage and Proasellus Ibero-aquitanian lineage, divergence be- tween Stenasellus virei/Stenasellus buili clade and other Stenasellus species, Proasellus coxalis lineage crown group diversification, Lirceolus/Gallasellus/Caecidotea/Remasellus crown group diversification, Proasellus Alpine lineage crown group diversification, Spanish Bragasellus crown group diversification, Proasellus Ibero-aquitanian lineage crown group diversification, Proasellus slavus lineage crown group diversification, Asellus crown group diversification, divergence between Proasellus coiffaiti and Proasel- lus slovenicus, Synasellus crown group diversification, and divergence between Proasellus beroni and Proasellus ligusticus. -
II. Sampling Design
National Park Service U.S. Department of the Interior Natural Resource Program Center Protocol for Monitoring Aquatic Invertebrates of Small Streams in the Heartland Inventory & Monitoring Network Natural Resource Report NPS/HTLN/NRR—2008/042 A Heartland Network Monitoring Protocol protecting the habitat of our heritage i ON THE COVER Herbert Hoover birthplace cottage at Herbert Hoover NHS, prescribed fire at Tallgrass Prairie NPres, aquatic invertebrate monitoring at George Washington Carver NM, the Mississippi River at Effigy Mounds NM. ii Protocol for Monitoring Aquatic Invertebrates of Small Streams in the Heartland Inventory & Monitoring Network David E. Bowles, Michael H. Williams, Hope R. Dodd, Lloyd W. Morrison, Janice A. Hinsey, Catherine E. Ciak, Gareth A. Rowell, Michael D. DeBacker, and Jennifer L. Haack National Park Service Heartland I&M Network Wilson’s Creek National Battlefield 6424 West Farm Road 182 Republic, Missouri 65738 June 2008 U.S. Department of the Interior National Park Service Natural Resource Program Center Fort Collins, Colorado i The Natural Resource Publication series addresses natural resource topics that are of interest and applicability to a broad readership in the National Park Service and to others in the management of natural resources, including the scientific community, the public, and the NPS conservation and environmental constituencies. Manuscripts are peer- reviewed to ensure that the information is scientifically credible, technically accurate, appropriately written for the intended audience, and is designed and published in a professional manner. Natural Resource Reports are the designated medium for disseminating high priority, current natural resource management information with managerial application. The series targets a general, diverse audience, and may contain NPS policy considerations or address sensitive issues of management applicability. -
Crustacea: Isopoda: Asellidae)
Int. J. Speleol. 7 (1975) pp. 339-356. Three New Trogldbitic Asellids from Western North America (Crustacea: Isopoda: Asellidae) by Thomas E. BOWMAN* "Vlajto -- ^. ^ Troglobitic isopods of the family Asellidae, comprising about 42 species (Fleming, 1973), are widespread in the eastern United States, mostly in non-glaciated areas, but extending into some glaciated parts of Illinois and Indiana. To the west, tro- globitic asellids range to central Kansas, Oklahoma and Texas. West of this area, if we exclude the 4 Mexican species of Mexistenasellus (Cole and Minckley, 1972; Magniez, 1972; Argano, 1973) which belong to a separate family, Stenasellidae (Henry and Magniez, 1968, 1970), only 2 troglobitic asellids are known from North America: Asellus californicus Miller (1933) from northern California and Conasellus pasquinii Argano (1972) from Veracruz state, Mexico. The 3 new species of western troglobitic asellids described herein extend the records of blind asellids in North America south to Chiapas state, Mexico, and north to central Alberta, Canada (ca. 53''N), and add a second species from Califor nia. The new species from Chiapas is very similar to Conasellus pasquinii Argano (1972); the new asellids from Alberta and California show no close affinities with known species. The generic status of North American species of Asellus is still unsettled. Henry and Magniez (1970) divided tlie species between Conasellus Stammer (1932) and ,- Pseudobaicalasellus Henry and Magniez (1968) except A. tomalensis Harford and ... A. californicus Miller, which they believed to be closely related to far-eastern forms belonging to Aseltus (Asellus) and Nipponasellus Matsumoto (1962). I have indi- " cated that this is unlikely for A. -
Isopoda: Asellota: Aselloidea, Gnathostenetroidoidea, Stenetrioidea
ISOPODA: ASELLOTA: ASELLOIDEA, GNATHOSTENETROIDOIDEA, STENETRIOIDEA J.-P. HENRY*, J. J. LEWIS** & G. MAGNIEZ* Les Asellota regroupent des lignées très différentes d'Isopo- Les Stenetriidae (fig. 11) et les Gnathostenetroididae (fig des, les unes vivant en milieu marin, les autres en eau douce. 10) sont deux petits groupes essentiellement marins, mais de Les unes et les autres ont souvent été étudiées par des zoolo récentes prospections ont amené la découverte d'un repré gistes différents, ce qui n'a pas toujours facilité l'établisse sentant de chacun dans les eaux souterraines (respective ment d'une systématique cohérente. Si l'on considère les ment dans l'interstitiel littoral de Curaçao et dans les eaux deux ensembles majeurs: les Janiroidea, essentiellement karstiques de l'île San Salvador, Bahamas). Ils fournissent marins et les Aselloidea, totalement dulçaquicoles, il semble un exemple d'apport direct de la faune marine à la faune que leurs thèmes évolutifs principaux soient radicalement stygobie. Les Protojaniridae, actuellement groupés avec les différents. Chez les Janiroïdes, la tendance à l'incorporation Gnathostenetroididae dans les Gnathostenetroidoidea pos progressive au pléotelson de tous les segments antérieurs du sèdent seulement le pléonite 1 libre (fig. 14). C'est un petit pléon prédomine; elle ne laisse finalement subsister aucun groupe caractéristique des eaux douces souterraines du pléonite libre chez les plus évolués. Mais cette évolution va domaine gondwanien: Afrique du Sud, Ceylan (Sket, 1982). de pair avec une conservation de l'ambivalence des pléopo- Les Aselloïdes forment l'ensemble de loin le plus riche en des 1 et 2 (coexistence des rôles operculaire et sexuel), qui les espèces stygobies et se répartissent en: a fixés dans un état peu différencié.