“Jellies: Living Art”
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Research Funding (Total $2,552,481) $15,000 2019
CURRICULUM VITAE TENNESSEE AQUARIUM CONSERVATION INSTITUTE 175 BAYLOR SCHOOL RD CHATTANOOGA, TN 37405 RESEARCH FUNDING (TOTAL $2,552,481) $15,000 2019. Global Wildlife Conservation. Rediscovering the critically endangered Syr-Darya Shovelnose Sturgeon. $10,000 2019. Tennessee Wildlife Resources Agency. Propagation of the Common Logperch as a host for endangered mussel larvae. $8,420 2019. Tennessee Wildlife Resources Agency. Monitoring for the Laurel Dace. $4,417 2019. Tennessee Wildlife Resources Agency. Examining interactions between Laurel Dace (Chrosomus saylori) and sunfish $12,670 2019. Trout Unlimited. Southern Appalachian Brook Trout propagation for reintroduction to Shell Creek. $106,851 2019. Private Donation. Microplastic accumulation in fishes of the southeast. $1,471. 2019. AZFA-Clark Waldram Conservation Grant. Mayfly propagation for captive propagation programs. $20,000. 2019. Tennessee Valley Authority. Assessment of genetic diversity within Blotchside Logperch. $25,000. 2019. Riverview Foundation. Launching Hidden Rivers in the Southeast. $11,170. 2018. Trout Unlimited. Propagation of Southern Appalachian Brook Trout for Supplemental Reintroduction. $1,471. 2018. AZFA Clark Waldram Conservation Grant. Climate Change Impacts on Headwater Stream Vertebrates in Southeastern United States $1,000. 2018. Hamilton County Health Department. Step 1 Teaching Garden Grants for Sequoyah School Garden. $41,000. 2018. Riverview Foundation. River Teachers: Workshops for Educators. $1,000. 2018. Tennessee Valley Authority. Youth Freshwater Summit $20,000. 2017. Tennessee Valley Authority. Lake Sturgeon Propagation. $7,500 2017. Trout Unlimited. Brook Trout Propagation. $24,783. 2017. Tennessee Wildlife Resource Agency. Assessment of Percina macrocephala and Etheostoma cinereum populations within the Duck River Basin. $35,000. 2017. U.S. Fish and Wildlife Service. Status surveys for conservation status of Ashy (Etheostoma cinereum) and Redlips (Etheostoma maydeni) Darters. -
Microbiota Differences of the Comb Jelly Mnemiopsis Leidyi in Native and Invasive Sub-Populations
bioRxiv preprint doi: https://doi.org/10.1101/601419; this version posted April 7, 2019. The copyright holder for this preprint (which was not certified by peer review) is the author/funder. All rights reserved. No reuse allowed without permission. Microbiota differences of the comb jelly Mnemiopsis leidyi in native and invasive sub‐populations Cornelia Jaspers1*, Nancy Weiland‐Bräuer3, Martin Fischer3, Sven Künzel4, Ruth A. Schmitz3 and Thorsten B.H. Reusch1 1GEOMAR Helmholtz Centre for Ocean Research Kiel, Marine Evolutionary Ecology, Kiel, Germany 2Institute for General Microbiology, Christian‐Albrechts‐Universität zu Kiel, Kiel, Germany 3Max Planck Institute for Evolutionary Biology, Plön, Germany *corresponding author: [email protected], +49‐431‐600‐4560, ORCID: 0000‐0003‐2850‐4131 Keywords: Comb jelly, metaorganism, bacteria, species translocations, invasive species 1 bioRxiv preprint doi: https://doi.org/10.1101/601419; this version posted April 7, 2019. The copyright holder for this preprint (which was not certified by peer review) is the author/funder. All rights reserved. No reuse allowed without permission. ABSTRACT The translocation of non‐indigenous species around the world, especially in marine systems, is a matter of concern for biodiversity conservation and ecosystem functioning. While specific traits are often recognized to influence establishment success of non‐indigenous species, the impact of the associated microbial community for the fitness, performance and invasion success of basal marine metazoans remains vastly unknown. In this study we compared the microbiota community composition of the invasive ctenophore Mnemiopsis leidyi in different native and invasive sub‐populations along with characterization of the genetic structure of the host. By 16S rRNA gene amplicon sequencing we showed that the sister group to all metazoans, namely ctenophores, harbored a distinct microbiota on the animal host, which significantly differed across two major tissues, namely epidermis and gastrodermis. -
Invasive Species: a Challenge to the Environment, Economy, and Society
Invasive Species: A challenge to the environment, economy, and society 2016 Manitoba Envirothon 2016 MANITOBA ENVIROTHON STUDY GUIDE 2 Acknowledgments The primary author, Manitoba Forestry Association, and Manitoba Envirothon would like to thank all the contributors and editors to the 2016 theme document. Specifically, I would like to thank Robert Gigliotti for all his feedback, editing, and endless support. Thanks to the theme test writing subcommittee, Kyla Maslaniec, Lee Hrenchuk, Amie Peterson, Jennifer Bryson, and Lindsey Andronak, for all their case studies, feedback, editing, and advice. I would like to thank Jacqueline Montieth for her assistance with theme learning objectives and comments on the document. I would like to thank the Ontario Envirothon team (S. Dabrowski, R. Van Zeumeren, J. McFarlane, and J. Shaddock) for the preparation of their document, as it provided a great launch point for the Manitoba and resources on invasive species management. Finally, I would like to thank Barbara Fuller, for all her organization, advice, editing, contributions, and assistance in the preparation of this document. Olwyn Friesen, BSc (hons), MSc PhD Student, University of Otago January 2016 2016 MANITOBA ENVIROTHON STUDY GUIDE 3 Forward to Advisors The 2016 North American Envirothon theme is Invasive Species: A challenge to the environment, economy, and society. Using the key objectives and theme statement provided by the North American Envirothon and the Ontario Envirothon, the Manitoba Envirothon (a core program of Think Trees – Manitoba Forestry Association) developed a set of learning outcomes in the Manitoba context for the theme. This document provides Manitoba Envirothon participants with information on the 2016 theme. -
The Living Reef
IN THIS MONTH'S MASWA NEWS The responsibility and ethics of keeping corals doesn’t stop with the home aquarist. It is also most importantly the responsibility of the aquarium retailer to ensure that he/she has up to date current information on coral Page keeping and has a holding system where corals are in kept conditions 2 Next Meetings where they will not die a slow death, but will survive and actually grow if What's happening this time? they are not purchased and happen to stay in the shop for a period of time. Not wanting to rub the retailers up the wrong way, unfortunately 2-3 Previous Meetings there is not a lot of good and current coral keeping information coming What happened last time? from them. In most of the shops corals will slowly die from poor water quality, low light levels and stinging each other - caused by poor 3-4 MASWA Guidelines placement. In my opinion this is just not good enough! There is no Society Guidelines in writing! excuse for improperly holding living animals! 4 Annual Donations Overdue! The technology and information for keeping corals in a healthy and happy Your Last Reminder!!! state is freely available and practiced in most parts of the world. We are somewhat behind in Australia however the internet has made it possible to 5-7 Jellyfish in the Swan/Canning Estuary communicate with aquarists in Europe and the USA and read worldwide discussions on keeping and caring for corals. This information has slowly What are they? Where do they come from?, and trickled though via some very dedicated marine aquarists and now Where do they go? Australia is beginning to enter the modern age of coral keeping. -
Scyphozoa: Rhizostomeae: Mastigiidae) from Turkey
Aquatic Invasions (2011) Volume 6, Supplement 1: S27–S28 doi: 10.3391/ai.2011.6.S1.006 Open Access © 2011 The Author(s). Journal compilation © 2011 REABIC Aquatic Invasions Records First record of Phyllorhiza punctata von Lendenfeld, 1884 (Scyphozoa: Rhizostomeae: Mastigiidae) from Turkey Cem Cevik1*, Osman Baris Derici1, Fatma Cevik1 and Levent Cavas2 1Çukurova University, Faculty of Fisheries, Balcalı, Adana, Turkey 2Dokuz Eylül University, Faculty of Science, Department of Chemistry, Division of Biochemistry, Kaynaklar Campus, İzmir, Turkey E-mail: [email protected] (CC), [email protected] (OBD), [email protected] (FC), [email protected] (LC) *Corresponding author Received: 1 December 2010 / Accepted: 11 April 2011/ Published online: 7 May 2011 Abstract The Australian spotted jellyfish Phyllorhiza punctata has been reported from several locations in the Mediterranean, but the present report is the first record from Turkish waters. Juveniles of the Erythrean alien shrimp scad, Alepes djedaba, were observed nestling among its tentacles. Possible vectors are mentioned. Key words: Phyllorhiza punctata, Alepes djedaba, Turkey, non-indigenous species bay of İskenderun (36º44.550N, 36º10.716E, Introduction salinity 38.6 PSU, sea water temperature 25.7ºC). The specimen was kept for 24 hours in a Phyllorhiza punctata von Lendenfeld, 1884 seawater aquarium and then preserved and (Scyphozoa: Rhizostomeae: Mastigiidae) deposited in the museum of Faculty of Fisheries originates in the tropical western Pacific at Çukurova University in Adana (CSFM- (Graham et al. 2003). The species has been CNI/2010-01). widely introduced in the Atlantic (Mienzan and Cornelius 1999; Cutress 1973; Silveira and Cornelius 2000; Graham et al. -
Crustacea: Amphipoda: Hyperiidea: Hyperiidae), with the Description of a New Genus to Accommodate H
Zootaxa 3905 (2): 151–192 ISSN 1175-5326 (print edition) www.mapress.com/zootaxa/ Article ZOOTAXA Copyright © 2015 Magnolia Press ISSN 1175-5334 (online edition) http://dx.doi.org/10.11646/zootaxa.3905.2.1 http://zoobank.org/urn:lsid:zoobank.org:pub:A47AE95B-99CA-42F0-979F-1CAAD1C3B191 A review of the hyperiidean amphipod genus Hyperoche Bovallius, 1887 (Crustacea: Amphipoda: Hyperiidea: Hyperiidae), with the description of a new genus to accommodate H. shihi Gasca, 2005 WOLFGANG ZEIDLER South Australian Museum, North Terrace, Adelaide, South Australia 5000, Australia. E-mail [email protected] Table of contents Abstract . 151 Introduction . 152 Material and methods . 152 Systematics . 153 Suborder Hyperiidea Milne-Edwards, 1830 . 153 Family Hyperiidae Dana, 1852 . 153 Genus Hyperoche Bovallius, 1887 . 153 Key to the species of Hyperoche Bovallius, 1887 . 154 Hyperoche medusarum (Kröyer, 1838) . 155 Hyperoche martinezii (Müller, 1864) . 161 Hyperoche picta Bovallius, 1889 . 165 Hyperoche luetkenides Walker, 1906 . 168 Hyperoche mediterranea Senna, 1908 . 173 Hyperoche capucinus Barnard, 1930 . 177 Hyperoche macrocephalus sp. nov. 180 Genus Prohyperia gen. nov. 182 Prohyperia shihi (Gasca, 2005) . 183 Acknowledgements . 186 References . 186 Abstract This is the first comprehensive review of the genus Hyperoche since that of Bovallius (1889). This study is based primarily on the extensive collections of the ZMUC but also on more recent collections in other institutions. Seven valid species are recognised in this review, including one described as new to science. Two new characters were discovered; the first two pereonites are partially or wholly fused dorsally and the coxa of pereopod 7 is fused with the pereonite. -
Pelagia Benovici Sp. Nov. (Cnidaria, Scyphozoa): a New Jellyfish in the Mediterranean Sea
Zootaxa 3794 (3): 455–468 ISSN 1175-5326 (print edition) www.mapress.com/zootaxa/ Article ZOOTAXA Copyright © 2014 Magnolia Press ISSN 1175-5334 (online edition) http://dx.doi.org/10.11646/zootaxa.3794.3.7 http://zoobank.org/urn:lsid:zoobank.org:pub:3DBA821B-D43C-43E3-9E5D-8060AC2150C7 Pelagia benovici sp. nov. (Cnidaria, Scyphozoa): a new jellyfish in the Mediterranean Sea STEFANO PIRAINO1,2,5, GIORGIO AGLIERI1,2,5, LUIS MARTELL1, CARLOTTA MAZZOLDI3, VALENTINA MELLI3, GIACOMO MILISENDA1,2, SIMONETTA SCORRANO1,2 & FERDINANDO BOERO1, 2, 4 1Dipartimento di Scienze e Tecnologie Biologiche ed Ambientali, Università del Salento, 73100 Lecce, Italy 2CoNISMa, Consorzio Nazionale Interuniversitario per le Scienze del Mare, Roma 3Dipartimento di Biologia e Stazione Idrobiologica Umberto D’Ancona, Chioggia, Università di Padova. 4 CNR – Istituto di Scienze Marine, Genova 5Corresponding authors: [email protected], [email protected] Abstract A bloom of an unknown semaestome jellyfish species was recorded in the North Adriatic Sea from September 2013 to early 2014. Morphological analysis of several specimens showed distinct differences from other known semaestome spe- cies in the Mediterranean Sea and unquestionably identified them as belonging to a new pelagiid species within genus Pelagia. The new species is morphologically distinct from P. noctiluca, currently the only recognized valid species in the genus, and from other doubtful Pelagia species recorded from other areas of the world. Molecular analyses of mitochon- drial cytochrome c oxidase subunit I (COI) and nuclear 28S ribosomal DNA genes corroborate its specific distinction from P. noctiluca and other pelagiid taxa, supporting the monophyly of Pelagiidae. Thus, we describe Pelagia benovici sp. -
Evolution of the TGF-B Signaling Pathway and Its Potential Role in the Ctenophore, Mnemiopsis Leidyi
Evolution of the TGF-b Signaling Pathway and Its Potential Role in the Ctenophore, Mnemiopsis leidyi Kevin Pang1, Joseph F. Ryan2, Andreas D. Baxevanis2, Mark Q. Martindale1* 1 Kewalo Marine Laboratory, Pacific Biosciences Research Center, University of Hawaii at Manoa, Honolulu, Hawaii, United States of America, 2 Genome Technology Branch, National Human Genome Research Institute, National Institutes of Health, Bethesda, Maryland, United States of America Abstract The TGF-b signaling pathway is a metazoan-specific intercellular signaling pathway known to be important in many developmental and cellular processes in a wide variety of animals. We investigated the complexity and possible functions of this pathway in a member of one of the earliest branching metazoan phyla, the ctenophore Mnemiopsis leidyi. A search of the recently sequenced Mnemiopsis genome revealed an inventory of genes encoding ligands and the rest of the components of the TGF-b superfamily signaling pathway. The Mnemiopsis genome contains nine TGF-b ligands, two TGF-b- like family members, two BMP-like family members, and five gene products that were unable to be classified with certainty. We also identified four TGF-b receptors: three Type I and a single Type II receptor. There are five genes encoding Smad proteins (Smad2, Smad4, Smad6, and two Smad1s). While we have identified many of the other components of this pathway, including Tolloid, SMURF, and Nomo, notably absent are SARA and all of the known antagonists belonging to the Chordin, Follistatin, Noggin, and CAN families. This pathway likely evolved early in metazoan evolution as nearly all components of this pathway have yet to be identified in any non-metazoan. -
Ctenophore Immune Cells Produce Chromatin Traps in Response to Pathogens and NADPH- Independent Stimulus
bioRxiv preprint doi: https://doi.org/10.1101/2020.06.09.141010; this version posted June 12, 2020. The copyright holder for this preprint (which was not certified by peer review) is the author/funder. All rights reserved. No reuse allowed without permission. Title: Ctenophore immune cells produce chromatin traps in response to pathogens and NADPH- independent stimulus Authors and Affiliations: Lauren E. Vandepasa,b,c*†, Caroline Stefanic†, Nikki Traylor-Knowlesd, Frederick W. Goetzb, William E. Brownee, Adam Lacy-Hulbertc aNRC Research Associateship Program; bNorthwest Fisheries Science Center, National Oceanographic and Atmospheric Administration, Seattle, WA 98112; cBenaroya Research Institute at Virginia Mason, Seattle, WA 98101; dUniversity of Miami Rosenstiel School of Marine and Atmospheric Sciences, Miami, FL 33149; eUniversity of Miami Department of Biology, Coral Gables, FL 33146; *Corresponding author; †Authors contributed equally Key Words: Ctenophore; ETosis; immune cell evolution Abstract The formation of extracellular DNA traps (ETosis) is a mechanism of first response by specific immune cells following pathogen encounters. Historically a defining behavior of vertebrate neutrophils, cells capable of ETosis were recently discovered in several invertebrate taxa. Using pathogen and drug stimuli, we report that ctenophores – thought to represent the earliest- diverging animal lineage – possess cell types capable of ETosis, suggesting that this cellular immune response behavior likely evolved early in the metazoan stem lineage. Introduction Immune cells deploy diverse behaviors during pathogen elimination, including phagocytosis, secretion of inflammatory cytokines, and expulsion of nuclear material by casting extracellular DNA “traps” termed ETosis. Specific immune cell types have not been identified in early diverging non-bilaterian phyla and thus conservation of cellular immune behaviors across Metazoa remains unclear. -
APEC Marine Resource Conservation Working Group Report
Asia-Pacific Economic Cooperation Secretariat Development of a Regional Risk Management Framework for APEC Economies for Use in the Control and Prevention of Introduced Marine Pests A PEC MRC-WG: FINAL REPORT CSIRO Centre for Research on Introduced Marine Pests (CRIMP) Inter-American Centre for Sustainable Ecosystems Development (ICSED) APEC Marine Resource Conservation Working Group Development of a Regional Risk Management Framework for APEC Economies for Use in the Control and Prevention of Introduced Marine Pests Edited by Angela T. Williamson CSIRO Centre for Research on Introduced Marine Pests (CRIMP) Nicholas J. Bax CSIRO Centre for Research on Introduced Marine Pests (CRIMP) Exequiel Gonzalez Inter-American Centre for Sustainable Ecosystems Development (ICSED) Warren Geeves Introduced Marine Pests Program, Environment Australia (EA) APEC MRC-WG Final Report: Control and Prevention of Introduced Marine Pests CONTRIBUTORS TO THIS APEC MRC –WG FINAL REPORT Group A (Chilean Consultancy) Group B (Australian Consultancy) Dr Max Agüero (Project leader) Dr Nic Bax (Project leader) Inter-American Centre for Sustainable CSIRO Centre for Research on Introduced Ecosystems Development (ICSED) Marine Pests (CRIMP) Santiago, Chile Hobart, Australia Dr. Pedro Baez Dr Keith Hayes National Natural History Museum of Chile CSIRO Centre for Research on Introduced Santiago, Chile Marine Pests (CRIMP) Hobart, Australia Exequiel González Dr Marcus Haward Inter-American Centre for Sustainable Institute of Antarctic and Southern Oceans Ecosystems Development (ICSED) Studies (IASOS), University of Tasmania Santiago, Chile Sandy Bay, Australia Dr Chad Hewitt CSIRO Centre for Research on Introduced Marine Pests (CRIMP) Hobart, Australia Dr Alice Morris CSIRO Centre for Research on Introduced Marine Pests (CRIMP) Hobart, Australia Dr. -
Ectosymbiotic Behavior of Cancer Gracilis and Its Trophic Relationships with Its Host Phacellophora Camtschatica and the Parasitoid Hyperia Medusarum
MARINE ECOLOGY PROGRESS SERIES Vol. 315: 221–236, 2006 Published June 13 Mar Ecol Prog Ser Ectosymbiotic behavior of Cancer gracilis and its trophic relationships with its host Phacellophora camtschatica and the parasitoid Hyperia medusarum Trisha Towanda*, Erik V. Thuesen Laboratory I, Evergreen State College, Olympia, Washington 98505, USA ABSTRACT: In southern Puget Sound, large numbers of megalopae and juveniles of the brachyuran crab Cancer gracilis and the hyperiid amphipod Hyperia medusarum were found riding the scypho- zoan Phacellophora camtschatica. C. gracilis megalopae numbered up to 326 individuals per medusa, instars reached 13 individuals per host and H. medusarum numbered up to 446 amphipods per host. Although C. gracilis megalopae and instars are not seen riding Aurelia labiata in the field, instars readily clung to A. labiata, as well as an artificial medusa, when confined in a planktonkreisel. In the laboratory, C. gracilis was observed to consume H. medusarum, P. camtschatica, Artemia franciscana and A. labiata. Crab fecal pellets contained mixed crustacean exoskeletons (70%), nematocysts (20%), and diatom frustules (8%). Nematocysts predominated in the fecal pellets of all stages and sexes of H. medusarum. In stable isotope studies, the δ13C and δ15N values for the megalopae (–19.9 and 11.4, respectively) fell closely in the range of those for H. medusarum (–19.6 and 12.5, respec- tively) and indicate a similar trophic reliance on the host. The broad range of δ13C (–25.2 to –19.6) and δ15N (10.9 to 17.5) values among crab instars reflects an increased diversity of diet as crabs develop. The association between C. -
Life Cycle of Chrysaora Fuscescens (Cnidaria: Scyphozoa) and a Key to Sympatric Ephyrae1
Life Cycle of Chrysaora fuscescens (Cnidaria: Scyphozoa) and a Key to Sympatric Ephyrae1 Chad L. Widmer2 Abstract: The life cycle of the Northeast Pacific sea nettle, Chrysaora fuscescens Brandt, 1835, is described from gametes to the juvenile medusa stage. In vitro techniques were used to fertilize eggs from field-collected medusae. Ciliated plan- ula larvae swam, settled, and metamorphosed into scyphistomae. Scyphistomae reproduced asexually through podocysts and produced ephyrae by undergoing strobilation. The benthic life history stages of C. fuscescens are compared with benthic life stages of two sympatric species, and a key to sympatric scyphome- dusa ephyrae is included. All observations were based on specimens maintained at the Monterey Bay Aquarium jelly laboratory, Monterey, California. The Northeast Pacific sea nettle, Chry- tained at the Monterey Bay Aquarium, Mon- saora fuscescens Brandt, 1835, ranges from terey, California, for over a decade, with Mexico to British Columbia and generally ap- cultures started by F. Sommer, D. Wrobel, pears along the California and Oregon coasts B. B. Upton, and C.L.W. However the life in late summer through fall (Wrobel and cycle remained undescribed. Chrysaora fusces- Mills 1998). Relatively little is known about cens belongs to the family Pelagiidae (Gersh- the biology or ecology of C. fuscescens, but win and Collins 2002), medusae of which are when present in large numbers it probably characterized as having a central stomach plays an important role in its ecosystem giving rise to completely separated and because of its high biomass (Shenker 1984, unbranched radiating pouches and without 1985). Chrysaora fuscescens eats zooplankton a ring-canal.