First Record of Leptodora Kindti in Dardanelle Reservoir and Status of Other Recent Additions to Dardanelle Fauna John D
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A Review of Planktivorous Fishes: Their Evolution, Feeding Behaviours, Selectivities, and Impacts
Hydrobiologia 146: 97-167 (1987) 97 0 Dr W. Junk Publishers, Dordrecht - Printed in the Netherlands A review of planktivorous fishes: Their evolution, feeding behaviours, selectivities, and impacts I Xavier Lazzaro ORSTOM (Institut Français de Recherche Scientifique pour le Développement eri Coopération), 213, rue Lu Fayette, 75480 Paris Cedex IO, France Present address: Laboratorio de Limrzologia, Centro de Recursos Hidricob e Ecologia Aplicada, Departamento de Hidraulica e Sarzeamento, Universidade de São Paulo, AV,DI: Carlos Botelho, 1465, São Carlos, Sï? 13560, Brazil t’ Mail address: CI? 337, São Carlos, SI? 13560, Brazil Keywords: planktivorous fish, feeding behaviours, feeding selectivities, electivity indices, fish-plankton interactions, predator-prey models Mots clés: poissons planctophages, comportements alimentaires, sélectivités alimentaires, indices d’électivité, interactions poissons-pltpcton, modèles prédateurs-proies I Résumé La vision classique des limnologistes fut de considérer les interactions cntre les composants des écosystè- mes lacustres comme un flux d’influence unidirectionnel des sels nutritifs vers le phytoplancton, le zoo- plancton, et finalement les poissons, par l’intermédiaire de processus de contrôle successivement physiqucs, chimiques, puis biologiques (StraSkraba, 1967). L‘effet exercé par les poissons plaiictophages sur les commu- nautés zoo- et phytoplanctoniques ne fut reconnu qu’à partir des travaux de HrbáEek et al. (1961), HrbAEek (1962), Brooks & Dodson (1965), et StraSkraba (1965). Ces auteurs montrèrent (1) que dans les étangs et lacs en présence de poissons planctophages prédateurs visuels. les conimuiiautés‘zooplanctoniques étaient com- posées d’espèces de plus petites tailles que celles présentes dans les milieux dépourvus de planctophages et, (2) que les communautés zooplanctoniques résultantes, composées d’espèces de petites tailles, influençaient les communautés phytoplanctoniques. -
Fagutredning, Prosjekt Nr
Müller - Sars Selskapet – Drøbak Daphnia lacustris (v.ø.), D. l. alpina (h.ø.): store, lavpredasjonsdaphnier og Lough Slieveaneena, Irland; oceanisk lavpredasjoninnsjø med bare ørret og store D. longispina Vedvarende menneskeindusert spredning av bredspektret ferskvannsfisk til og internt i Norge: et holarktisk, økologisk perspektiv Rapport nr. 10-2009 Drøbak 2009 ISBN: 978-82-8030-003-4 Ekstrakt Menneskeindusert spredning av fisk med bredspektret fødevalg, som karpefisk og gjedde, påvirker nå følsomme økosystemer i store deler av Norge. Mens en pest-art som ørekyte (Phoxinus phoxinus) kan leve over et meget bredt temperaturområde, og finnes like vanlig i høyfjellet som i karpefiskområder i lavlandet og på kontinentet, har andre karpefisk og nordlig gjedde (Esox lucius) vanligvis et trangere temperaturområde, slik som de siste spredningsartene i Norge: sørv (Scardinius erythrophthalmus), suter (Tinca tinca) og regnlaue (Leucaspius delineatus). Arter som karpe, mort, karuss, gullvederbuk og stingsild kan og også spres med menneskers hjelp. I tillegg ble mataukfisk som kanadisk bekkerøye spredd under perioden med forsuring i Norge og regnbueørret er satt ut ulike steder i landet gjennom flere tiår. Spredning av ørekyte og de tidligere utsettingene av faunafremmede laksefisk blir gitt stor oppmerksomhet i forvaltning og forskning, mens spredning av øvrige karpefisk og gjedde til ekstremt sjeldne økosystemer i norsk lavland får utvikle seg relativt fritt i det ”oppvirvlede støvet” rundt ørekyte og laksefiskene. På grunn av landets steile topografi og lange, sammenhengende fjellkjeder mot invasjonssentre, og -regioner, var det alltid problematisk for ferskvannsfisk å spre seg over hele Norge, før menneskene ankom. Etter siste istid har imidlertid menneskene båret fisk over det meste av landet. -
Lake Superior Food Web MENT of C
ATMOSPH ND ER A I C C I A N D A M E I C N O I S L T A R N A T O I I O T N A N U E .S C .D R E E PA M RT OM Lake Superior Food Web MENT OF C Sea Lamprey Walleye Burbot Lake Trout Chinook Salmon Brook Trout Rainbow Trout Lake Whitefish Bloater Yellow Perch Lake herring Rainbow Smelt Deepwater Sculpin Kiyi Ruffe Lake Sturgeon Mayfly nymphs Opossum Shrimp Raptorial waterflea Mollusks Amphipods Invasive waterflea Chironomids Zebra/Quagga mussels Native waterflea Calanoids Cyclopoids Diatoms Green algae Blue-green algae Flagellates Rotifers Foodweb based on “Impact of exotic invertebrate invaders on food web structure and function in the Great Lakes: NOAA, Great Lakes Environmental Research Laboratory, 4840 S. State Road, Ann Arbor, MI A network analysis approach” by Mason, Krause, and Ulanowicz, 2002 - Modifications for Lake Superior, 2009. 734-741-2235 - www.glerl.noaa.gov Lake Superior Food Web Sea Lamprey Macroinvertebrates Sea lamprey (Petromyzon marinus). An aggressive, non-native parasite that Chironomids/Oligochaetes. Larval insects and worms that live on the lake fastens onto its prey and rasps out a hole with its rough tongue. bottom. Feed on detritus. Species present are a good indicator of water quality. Piscivores (Fish Eaters) Amphipods (Diporeia). The most common species of amphipod found in fish diets that began declining in the late 1990’s. Chinook salmon (Oncorhynchus tshawytscha). Pacific salmon species stocked as a trophy fish and to control alewife. Opossum shrimp (Mysis relicta). An omnivore that feeds on algae and small cladocerans. -
Alewife Planktivory Controls the Abundance of Two Invasive Predatory Cladocerans in Lake Michigan
Freshwater Biology (2007) 52, 561–573 doi:10.1111/j.1365-2427.2007.01728.x Alewife planktivory controls the abundance of two invasive predatory cladocerans in Lake Michigan STEVEN A. POTHOVEN,* HENRY A. VANDERPLOEG,† JOANN F. CAVALETTO,† DAMON M. KRUEGER,‡ DORAN M. MASON† AND STEPHEN B. BRANDT† *National Oceanic and Atmospheric Administration, Great Lakes Environmental Research Laboratory, Muskegon, MI, U.S.A. †National Oceanic and Atmospheric Administration, Great Lakes Environmental Research Laboratory, Ann Arbor, MI, U.S.A. ‡University of Michigan, School of Natural Resources and Environment, Ann Arbor, MI, U.S.A. SUMMARY 1. We sampled along a nearshore transect (10-m bathymetric contour) in Lake Michigan to determine diet, 24-h feeding periodicity, daily ration and food requirements of an invasive fish, the alewife, Alosa pseudoharengus, relative to zooplankton abundance and production. Our objective was to determine whether the alewife controls the abundance of two invasive, predatory cladocerans, Bythotrephes longimanus and Cercopagis pengoi. 2. Bosminidae was the most abundant prey taxon and Chydoridae, Leptodora, Chironom- idae and Bythotrephes were the least abundant. Neither Bythotrephes nor Cercopagis were important prey for small alewives (£100 mm). Bythotrephes was eaten by over 50% of large alewives (>100 mm) and accounted for 10–27% of the diet weight. Cercopagis was eaten by about 30% of the large alewives but only accounted 1% of the diet weight. 3. Food weight in stomachs was highest early in the night for small alewives and lowest at night for large alewives. Chironomidae and large Chydoridae were the preferred prey of small alewives. Bythotrephes and large Chydoridae were the preferred prey for large alewives. -
Role of Leptodora Kindti (Cladocera: Leptodoridae) in the Life Cycle of Raphidascaris Biwakoensis (Nematoda: Anisakidae), a Fish Parasite in Lake Biwa, Japan
DISEASES OF AQUATIC ORGANISMS Vol. 32: 157-160, 1998 Published March 5 Dis Aquat Org NOTE Role of Leptodora kindti (Cladocera: Leptodoridae) in the life cycle of Raphidascaris biwakoensis (Nematoda: Anisakidae), a fish parasite in Lake Biwa, Japan 'Institute of Parasitology, Academy of Sciences of the Czech Republic. BraniSovskA 31.370 05 tesk6 BudBjovice. Czech Republic *National Research Institute of Far Seas Fisheries. Fisheries Agency of Japan. 5-7-1 Orido, Shimizu. Shizuoka 424, Japan 3~epartmentof Fisheries. Faculty of Agriculture. Kinki University, 3327 Nakamachi. Nara 631. Japan 'Center for Ecological Research. Kyoto University. Shimosakamoto 4-1, Otsu. Shiga 520-01. Japan ABSTRACT: Advanced third-stage larvae (body length 2.92 presence of large, white-coloured nematodes in them to 5.49 mm) of the fish nematode Raphidascaris biwakoensis is conspicuous (Fig. 1).Numerous Daphnia-like clado- Fujita, 1928 were found as frequent parasites of the leptodond cerans, mostly Daphnia galeata Sars, present in the cladoceran Leptodora kindti (Focke) in Lake Biwa, southern Honshu, Japan, in July 1995. This is the first confirmed record sample were uninfected. of the L3 of thls nematode species from an invertebrate host, The larvae of Raphidascaris biwakoensis (Fig. 2) showing that L. kindti may serve as a true intermediate host were not encapsulated. Their bodies (n = 5) measured to R. biwakoensis, probably in addition to lower aquatic 2.92 to 5.49 mm in length and 124 to 235 pm in maxi- vertebrates. The high degree of prevalence of the nematode larvae in L. klndtl in Lake Biwa indicates that this plankton mum width. -
Regulation of Bosmina Longirostris by Leptodora Kindtii
Limnol. Oceanogr., 36(3), 199 1, 483-495 0 199 1, by the American Society of Limnology and Oceanography, Inc Invertebrate predation in Lake Michigan: Regulation of Bosmina longirostris by Leptodora kindtii Donn K. Branstrator and John T. Lehman Department of Biology, Natural Science Building, University of Michigan, Ann Arbor 48 109 Abstract The density of Bosmina longirostris (0. F. Mueller) declined loo-fold between 25 June and 20 August 1985 in Lake Michigan; a similar pattern of changing abundances was observed in 1986 but not in 1987 or 1988. Bosmina collected from periods before and during the decline in 1985 and 1986 were examined for size at maturity and clutch size. Population size-frequency distributions suggest that some animals began to mature at smaller sizes during the decline in 1985. In some cases, the average clutch size for Bosmina of similar body lengths was significantly reduced during the decline in 1985 and 1986. These data suggest that food limitation was a factor in the species decline in both years. Gut content analyses indicate that of seven potential predators, Leptodora kindtii (Focke) was probably most responsible for Bosmina mortality. There is ample evidence that Leptodora does not consume strictly fluid from its prey: juvenile Leptodoru ate mainly smaller prey that included Bosmina and the rotifer Conochilus; adults ate a broader size range of prey that included mainly Bosmina, Daphnia, and copepods. In 1987 and 1988, Bythotrephes cederstroemii Schoedler was abundant in Lake Michigan and was contemporaneous with collapse ofthe Leptodora population and concurrent increase of the Bosmina population in August and September. -
Long-Term Patterns in the Population Dynamics of Daphnia Longispina, Leptodora Kindtii and Cyanobacteria in a Shallow Reservoir: a Self-Organising Map (SOM) Approach
RESEARCH ARTICLE Long-Term Patterns in the Population Dynamics of Daphnia longispina, Leptodora kindtii and Cyanobacteria in a Shallow Reservoir: A Self-Organising Map (SOM) Approach Adrianna Wojtal-Frankiewicz1*, Andrzej Kruk2, Piotr Frankiewicz1,3, Zuzanna Oleksińska1, Katarzyna Izydorczyk3 1 Department of Applied Ecology, Faculty of Biology and Environmental Protection, University of Lodz, Lodz, Poland, 2 Department of Ecology and Vertebrate Zoology, Faculty of Biology and Environmental Protection, University of Lodz, Lodz, Poland, 3 European Regional Centre for Ecohydrology, Polish Academy of Science, Lodz, Poland * [email protected] OPEN ACCESS Abstract Citation: Wojtal-Frankiewicz A, Kruk A, Frankiewicz P, Oleksińska Z, Izydorczyk K (2015) Long-Term The recognition of long-term patterns in the seasonal dynamics of Daphnia longispina, Lep- Patterns in the Population Dynamics of Daphnia todora kindtii and cyanobacteria is dependent upon their interactions, the water tempera- longispina, Leptodora kindtii and Cyanobacteria in a Shallow Reservoir: A Self-Organising Map (SOM) ture and the hydrological conditions, which were all investigated between 1999 and 2008 in Approach. PLoS ONE 10(12): e0144109. the lowland Sulejow Reservoir. The biomass of cyanobacteria, densities of D. longispina doi:10.1371/journal.pone.0144109 and L. kindtii, concentration of chlorophyll a and water temperature were assessed weekly Editor: Takeshi Miki, National Taiwan University, from April to October at three sampling stations along the longitudinal reservoir axis. The TAIWAN retention time was calculated using data on the actual water inflow and reservoir volume. A Received: February 17, 2015 self-organising map (SOM) was used due to high interannual variability in the studied Accepted: November 15, 2015 parameters and their often non-linear relationships. -
Unraveling the Origin of Cladocera by Identifying Heterochrony in the Developmental Sequences of Branchiopoda Fritsch Et Al
Unraveling the origin of Cladocera by identifying heterochrony in the developmental sequences of Branchiopoda Fritsch et al. Fritsch et al. Frontiers in Zoology 2013, 10:35 http://www.frontiersinzoology.com/content/10/1/35 Fritsch et al. Frontiers in Zoology 2013, 10:35 http://www.frontiersinzoology.com/content/10/1/35 RESEARCH Open Access Unraveling the origin of Cladocera by identifying heterochrony in the developmental sequences of Branchiopoda Martin Fritsch1*, Olaf RP Bininda-Emonds2 and Stefan Richter1 Abstract Introduction: One of the most interesting riddles within crustaceans is the origin of Cladocera (water fleas). Cladocerans are morphologically diverse and in terms of size and body segmentation differ considerably from other branchiopod taxa (Anostraca, Notostraca, Laevicaudata, Spinicaudata and Cyclestherida). In 1876, the famous zoologist Carl Claus proposed with regard to their origin that cladocerans might have evolved from a precociously maturing larva of a clam shrimp-like ancestor which was able to reproduce at this early stage of development. In order to shed light on this shift in organogenesis and to identify (potential) changes in the chronology of development (heterochrony), we investigated the external and internal development of the ctenopod Penilia avirostris and compared it to development in representatives of Anostraca, Notostraca, Laevicaudata, Spinicaudata and Cyclestherida. The development of the nervous system was investigated using immunohistochemical labeling and confocal microscopy. External morphological development was followed using a scanning electron microscope and confocal microscopy to detect the autofluorescence of the external cuticle. Results: In Anostraca, Notostraca, Laevicaudata and Spinicaudata development is indirect and a free-swimming nauplius hatches from resting eggs. In contrast, development in Cyclestherida and Cladocera, in which non-swimming embryo-like larvae hatch from subitaneous eggs (without a resting phase) is defined herein as pseudo-direct and differs considerably from that of the other groups. -
Effects of the Invasive Zooplankter Bythotrephes Longimanus on the Aquatic Food Web in Green Bay, Lake Michigan Arianna Neumeyer Lawrence University
Lawrence University Lux Lawrence University Honors Projects 5-29-2019 Effects of the Invasive Zooplankter Bythotrephes longimanus on the Aquatic Food Web in Green Bay, Lake Michigan Arianna Neumeyer Lawrence University Follow this and additional works at: https://lux.lawrence.edu/luhp Part of the Biology Commons, and the Terrestrial and Aquatic Ecology Commons © Copyright is owned by the author of this document. Recommended Citation Neumeyer, Arianna, "Effects of the Invasive Zooplankter Bythotrephes longimanus on the Aquatic Food Web in Green Bay, Lake Michigan" (2019). Lawrence University Honors Projects. 146. https://lux.lawrence.edu/luhp/146 This Honors Project is brought to you for free and open access by Lux. It has been accepted for inclusion in Lawrence University Honors Projects by an authorized administrator of Lux. For more information, please contact [email protected]. Effects of the Invasive Zooplankter Bythotrephes longimanus on the Aquatic-Food Web in Green Bay, Lake Michigan By: Arianna Neumeyer A Thesis Submitted in Candidacy for Honors at Graduation from Lawrence University May 2019 Table of Contents Table of Contents i List of Figures iii List of Tables iv Acknowledgements v Introduction 1 Aquatic Invasive Species 1 Ecological Questions 5 Importance of the Great Lakes 6 Green Bay, Lake Michigan 7 Invertebrate Predation in Green Bay 10 Bythotrephes longimanus 13 Leptodora kindtii 15 Effects of Bythotrephes on freshwater ecosystems 17 Materials and Methods 18 Field Sites and Sampling Techniques 18 Laboratory -
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INDEX* With the exception of Allee el al. (1949) and Sverdrup et at. (1942 or 1946), indexed as such, junior authors are indexed to the page on which the senior author is cited although their names may appear only in the list of references to the chapter concerned; all authors in the annotated bibliographies are indexed directly. Certain variants and equivalents in specific and generic names are indicated without reference to their standing in nomenclature. Ship and expedition names are in small capitals. Attention is called to these subindexes: Intertidal ecology, p. 540; geographical summary of bottom communities, pp. 520-521; marine borers (systematic groups and substances attacked), pp. 1033-1034. Inasmuch as final assembly and collation of the index was done without assistance, errors of omis- sion and commission are those of the editor, for which he prays forgiveness. Abbott, D. P., 1197 Acipenser, 421 Abbs, Cooper, 988 gUldenstUdti, 905 Abe, N.r 1016, 1089, 1120, 1149 ruthenus, 394, 904 Abel, O., 10, 281, 942, 946, 960, 967, 980, 1016 stellatus, 905 Aberystwyth, algae, 1043 Acmaea, 1150 Abestopluma pennatula, 654 limatola, 551, 700, 1148 Abra (= Syndosmya) mitra, 551 alba community, 789 persona, 419 ovata, 846 scabra, 700 Abramis, 867, 868 Acnidosporidia, 418 brama, 795, 904, 905 Acoela, 420 Abundance (Abundanz), 474 Acrhella horrescens, 1096 of vertebrate remains, 968 Acrockordus granulatus, 1215 Abyssal (defined), 21 javanicus, 1215 animals (fig.), 662 Acropora, 437, 615, 618, 622, 627, 1096 clay, 645 acuminata, 619, 622; facing -
ERSS-Spiny Waterflea (Bythotrephes Longimanus)
Spiny Waterflea (Bythotrephes longimanus) Ecological Risk Screening Summary U.S. Fish & Wildlife Service, February 2011 Revised, September 2014 and October 2016 Web Version, 11/29/2017 Photo: J. Liebig, NOAA Great Lakes Environmental Research Laboratory 1 Native Range, and Status in the United States Native Range From CABI (2016): “B. longimanus is native to the Baltic nations, Norway, northern Germany and the European Alps, covering Switzerland, Austria, Italy and southern Germany. It is also native to the British Isles and the Caucasus region, and is widespread in Russia.” Status in the United States From Liebig et al. (2016): “Bythotrephes is established in all of the Great Lakes and many inland lakes in the region. Densities are very low in Lake Ontario, low in southern Lake Michigan and offshore areas of Lake Superior, moderate to high in Lake Huron, and very high in the central basin of Lake Erie (Barbiero et al. 2001, Vanderploeg et al. 2002, Brown and Branstrator 2004).” 1 “Bythotrephes was first detected in December 1984 in Lake Huron (Bur et al. 1986), then Lake Ontario in September 1985 (Lange and Cap 1986), Lake Erie in October 1985 (Bur et al. 1986), Lake Michigan in September 1986 (Evans 1988), and Lake Superior in August 1987 (Cullis and Johnson 1988).” “Collected from Long Lake approximately 5 miles SW of Traverse City, Michigan (P. Marangelo, unpublished data). Established in Greenwood Lake and Flour Lake, Minnesota (D. Branstrator, pers. comm.). Collected in Allegheny Reservoir, New York (R. Hoskin, pers. comm.).” Means of Introductions in the United States From Liebig et al. -
SEM Studies on the Early Larval Development of Triops Cancriformis (Bosc)(Crustacea: Branchiopoda, Notostraca)
Blackwell Synergy: Acta Zoologica, Vol 84, Issue 4, pp. 267 -284: SEM studies on the early larval de ... Page 1 of 13 Home > List of Issues > Table of Contents > Full Text Full Article View/Print PDF article (977K) Download to reference manager Acta Zoologica Volume 84 Issue 4 Page 267 - October 2003 doi:10.1046/j.1463-6395.2003.00146.x SEM studies on the early larval development of Triops cancriformis (Bosc)(Crustacea: Branchiopoda, Notostraca) Ole S. Møller 1, Jørgen Olesen 2 and Jens T. Høeg 1 QuickSearch in: Abstract Synergy PubMed (MEDLINE) We investigated early larval development in the notostracan Triops CrossRef cancriformis (Bosc, 1801 1802) raised from dried cysts under for laboratory conditions. We document the five earliest stages using Authors: scanning electron microscopy. The stage I larva is a typical nauplius, lecithotropic and without trunk limbs. The stage II larva is feeding and Ole S. Møller has trunk limb precursors and a larger carapace. Stage III larvae have larger trunk limbs and a more adult shape. Stage IV larvae have well Jørgen Olesen developed trunk limbs, and stage V larvae show atrophy of the Jens T. Høeg antennae. We describe the ontogeny of selected features such as trunk limbs and carapace, discuss ontogeny and homologization of head appendages, follow the development of the feeding mechanism, and discuss trunk limb ontogeny. Keywords: Keywords: ontogeny Introduction Go to: Choose nauplius limbs Larval development is of increasing importance in our attempts to reconstruct crustacean phylogeny and how the stemline (stem species) radiated into the evolution highly divergent forms displayed by both extant and extinct Crustacea (e.g.