Polynyma (Stimpson, 1860) (Mollusca, Mactridae)
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Faunistic Assemblages of a Sublittoral Coarse Sand Habitat of the Northwestern Mediterranean
Scientia Marina 75(1) March 2011, 189-196, Barcelona (Spain) ISSN: 0214-8358 doi: 10.3989/scimar.2011.75n1189 Faunistic assemblages of a sublittoral coarse sand habitat of the northwestern Mediterranean EVA PUBILL 1, PERE ABELLÓ 1, MONTSERRAT RAMÓN 2,1 and MARC BAETA 3 1 Institut de Ciències del Mar (CSIC), Passeig Marítim de la Barceloneta, 37-49, 08003 Barcelona, Spain. E-mail: [email protected] 2 Instituto Español de Oceanografía, Centre Oceanogràfic de les Balears, Moll de Ponent s/n, 07015 Palma de Mallorca, Spain. 3 Tecnoambiente S.L., carrer Indústria, 550-552, 08918 Badalona, Spain. SUMMARY: The sublittoral megabenthic assemblages of a northwestern Mediterranean coarse sandy beach exploited for the bivalve Callista chione were studied. The spatial and bathymetric variability of its distinctive faunal assemblages was characterised by quantitative sampling performed with a clam dredge. The taxa studied were Mollusca Bivalvia and Gastropoda, Crustacea Decapoda, Echinodermata and Pisces, which accounted for over 99% of the total biomass. Three well- differentiated species assemblages were identified: (1) assemblage MSS (Medium Sand Shallow) in medium sand (D50=0.37 mm) and shallow waters (mean depth =6.5 m), (2) assemblage CSS (Coarse Sand Shallow) in coarse sand (D50=0.62 mm) in shallow waters (mean depth =6.7 m), and (3) assemblage CSD (Coarse Sand Deep) in coarse sand (D50=0.64 mm) in deeper waters (mean depth =16.2 m). Assemblage MSS was characterised by the codominance of the bivalves Mactra stultorum and Acanthocardia tuberculata. C. chione was dominant in both density and biomass in assemblages CSS and CSD. -
Ring Test Bulletin – RTB#52
www.nmbaqcs.org Ring Test Bulletin – RTB#52 Tim Worsfold David Hall Søren Pears (Images) APEM Ltd. March 2017 E-mail: [email protected] RING TEST DETAILS Ring Test #52 Type/Contents – Targeted - Bivalvia Circulated – 12/11/16 Results deadline – 16/12/16 Number of Subscribing Laboratories – 24 Number of Participating Laboratories – 21 Number of Results Received – 21* *multiple data entries per laboratory permitted Summary of differences Total differences for 21 Specimen Genus Species Size returns Genus Species RT5201 Thyasira flexuosa 2-3mm 0 1 RT5202 Abra alba 10mm 0 1 RT5203 Cochlodesma praetenue 3-5mm 5 5 RT5204 Thyasira equalis 2-4mm 3 9 RT5205 Abra nitida 4-6mm 0 1 RT5206 Fabulina fabula 3-5mm 1 1 RT5207 Cerastoderma edule 1mm 6 13 RT5208 Tellimya ferruginosa 3-4mm 0 0 RT5209 Nucula nucleus 8-9mm 0 3 RT5210 Nucula nitidosa 2-3mm 1 3 RT5211 Asbjornsenia pygmaea 2-3mm 1 1 RT5212 Abra prismatica 3-5mm 1 1 RT5213 Chamelea striatula 3-4mm 7 9 RT5214 Montacuta substriata 1-2mm 5 5 RT5215 Spisula subtruncata 1mm 4 6 RT5216 Adontorhina similis 1-2mm 4 4 RT5217 Goodallia triangularis 1-2mm 0 0 RT5218 Scrobicularia plana 1mm 20 20 RT5219 Cerastoderma edule 2-3mm 9 13 RT5220 Arctica islandica 1mm 4 4 RT5221 Kurtiella bidentata 2-3mm 2 2 RT5222 Venerupis corrugata 2-3mm 9 9 RT5223 Barnea parva 10-20mm 0 0 RT5224 Abra alba 4-5mm 1 2 RT5225 Nucula nucleus 2mm 0 11 Total differences 83 124 Average 4.0 5.9 differences /lab. NMBAQC RT#52 bulletin Differences 10 15 20 25 0 5 Arranged in order of increasing number of differences (by specific followed by generic errors). -
Zhang Et Al., 2015
Estuarine, Coastal and Shelf Science 153 (2015) 38e53 Contents lists available at ScienceDirect Estuarine, Coastal and Shelf Science journal homepage: www.elsevier.com/locate/ecss Modeling larval connectivity of the Atlantic surfclams within the Middle Atlantic Bight: Model development, larval dispersal and metapopulation connectivity * Xinzhong Zhang a, , Dale Haidvogel a, Daphne Munroe b, Eric N. Powell c, John Klinck d, Roger Mann e, Frederic S. Castruccio a, 1 a Institute of Marine and Coastal Science, Rutgers University, New Brunswick, NJ 08901, USA b Haskin Shellfish Research Laboratory, Rutgers University, Port Norris, NJ 08349, USA c Gulf Coast Research Laboratory, University of Southern Mississippi, Ocean Springs, MS 39564, USA d Center for Coastal Physical Oceanography, Old Dominion University, Norfolk, VA 23529, USA e Virginia Institute of Marine Science, The College of William and Mary, Gloucester Point, VA 23062, USA article info abstract Article history: To study the primary larval transport pathways and inter-population connectivity patterns of the Atlantic Received 19 February 2014 surfclam, Spisula solidissima, a coupled modeling system combining a physical circulation model of the Accepted 30 November 2014 Middle Atlantic Bight (MAB), Georges Bank (GBK) and the Gulf of Maine (GoM), and an individual-based Available online 10 December 2014 surfclam larval model was implemented, validated and applied. Model validation shows that the model can reproduce the observed physical circulation patterns and surface and bottom water temperature, and Keywords: recreates the observed distributions of surfclam larvae during upwelling and downwelling events. The surfclam (Spisula solidissima) model results show a typical along-shore connectivity pattern from the northeast to the southwest individual-based model larval transport among the surfclam populations distributed from Georges Bank west and south along the MAB shelf. -
Os Nomes Galegos Dos Moluscos
A Chave Os nomes galegos dos moluscos 2017 Citación recomendada / Recommended citation: A Chave (2017): Nomes galegos dos moluscos recomendados pola Chave. http://www.achave.gal/wp-content/uploads/achave_osnomesgalegosdos_moluscos.pdf 1 Notas introdutorias O que contén este documento Neste documento fornécense denominacións para as especies de moluscos galegos (e) ou europeos, e tamén para algunhas das especies exóticas máis coñecidas (xeralmente no ámbito divulgativo, por causa do seu interese científico ou económico, ou por seren moi comúns noutras áreas xeográficas). En total, achéganse nomes galegos para 534 especies de moluscos. A estrutura En primeiro lugar preséntase unha clasificación taxonómica que considera as clases, ordes, superfamilias e familias de moluscos. Aquí apúntase, de maneira xeral, os nomes dos moluscos que hai en cada familia. A seguir vén o corpo do documento, onde se indica, especie por especie, alén do nome científico, os nomes galegos e ingleses de cada molusco (nalgún caso, tamén, o nome xenérico para un grupo deles). Ao final inclúese unha listaxe de referencias bibliográficas que foron utilizadas para a elaboración do presente documento. Nalgunhas desas referencias recolléronse ou propuxéronse nomes galegos para os moluscos, quer xenéricos quer específicos. Outras referencias achegan nomes para os moluscos noutras linguas, que tamén foron tidos en conta. Alén diso, inclúense algunhas fontes básicas a respecto da metodoloxía e dos criterios terminolóxicos empregados. 2 Tratamento terminolóxico De modo moi resumido, traballouse nas seguintes liñas e cos seguintes criterios: En primeiro lugar, aprofundouse no acervo lingüístico galego. A respecto dos nomes dos moluscos, a lingua galega é riquísima e dispomos dunha chea de nomes, tanto específicos (que designan un único animal) como xenéricos (que designan varios animais parecidos). -
Biogeographical Homogeneity in the Eastern Mediterranean Sea. II
Vol. 19: 75–84, 2013 AQUATIC BIOLOGY Published online September 4 doi: 10.3354/ab00521 Aquat Biol Biogeographical homogeneity in the eastern Mediterranean Sea. II. Temporal variation in Lebanese bivalve biota Fabio Crocetta1,*, Ghazi Bitar2, Helmut Zibrowius3, Marco Oliverio4 1Stazione Zoologica Anton Dohrn, Villa Comunale, 80121, Napoli, Italy 2Department of Natural Sciences, Faculty of Sciences, Lebanese University, Hadath, Lebanon 3Le Corbusier 644, 280 Boulevard Michelet, 13008 Marseille, France 4Dipartimento di Biologia e Biotecnologie ‘Charles Darwin’, University of Rome ‘La Sapienza’, Viale dell’Università 32, 00185 Roma, Italy ABSTRACT: Lebanon (eastern Mediterranean Sea) is an area of particular biogeographic signifi- cance for studying the structure of eastern Mediterranean marine biodiversity and its recent changes. Based on literature records and original samples, we review here the knowledge of the Lebanese marine bivalve biota, tracing its changes during the last 170 yr. The updated checklist of bivalves of Lebanon yielded a total of 114 species (96 native and 18 alien taxa), accounting for ca. 26.5% of the known Mediterranean Bivalvia and thus representing a particularly poor fauna. Analysis of the 21 taxa historically described on Lebanese material only yielded 2 available names. Records of 24 species are new for the Lebanese fauna, and Lioberus ligneus is also a new record for the Mediterranean Sea. Comparisons between molluscan records by past (before 1950) and modern (after 1950) authors revealed temporal variations and qualitative modifications of the Lebanese bivalve fauna, mostly affected by the introduction of Erythraean species. The rate of recording of new alien species (evaluated in decades) revealed later first local arrivals (after 1900) than those observed for other eastern Mediterranean shores, while the peak in records in conjunc- tion with our samplings (1991 to 2010) emphasizes the need for increased field work to monitor their arrival and establishment. -
Assessment of Stress Biomarkers Responses in Mantle and Adductor
Highlights in BioScience ISSN:2682-4043 DOI:10.36462/H.BioSci.202101 Research Article Assessment of stress biomarkers responses in mantle and adductor Open Access muscles of Mactra stultorum following lead exposure Imene Chetoui*1, Feriel Ghribi1, Safa Bejaoui1, Mohamed Ghalghaa2, M'hamed El Cafsi 1, Nejla Soudani1 Abstract The objective of the present work is to evaluate the possible toxic effect engendered 1 Faculty of Sciences of Tunis, Biology Depart- ment, Research Unit of Physiology and Aquatic by graded doses of lead chloride (PbCl2) on Mactra stultorum mantle and adductor mus- Environment, University of Tunis El Manar, cles through a battery of biomarkers responses. M. stultorum were divided into 4 groups 2092 Tunis, Tunisia. and exposed to three concentrations of PbCl2 (D1:1mg/L, D2: 2.5 mg/L and D3: 5 mg/L) 2 Aquatic Environment Exploitation Resources with control during five days. Our findings showed decreases of lipid contents in both Unit, Higher institute fishing and fish farming organs following PbCl2 exposure, while, proteins declined only in the adductor muscles of Bizerte, Tunisia. of the treated M. stultorum. During our experiment, the PbCl2 exposure induced the levels of metallothionein (MTs), malondialdehyde (MDA) and advanced oxidation protein prod- Contacts of authors ucts (AOPP) in both organs as compared to the control. These biomarkers responses are distinctly different between mantle and adductor muscles. Keywords: Lead chloride, Mactra stultorum, Mantle, Adductor muscles, Biomarkers responses. Introduction The contamination of aquatic ecosystems by several environmental pollutants has become a * To whom correspondence should be worldwide problem in the last years [1]. The presence of heavy metals in those environments and addressed: Imene Chetoui their accumulation in marine organisms has been largely investigated during the last decades because Received: September 24, 2020 of their harmful effects and persistence [2]. -
Spatial Variability in Recruitment of an Infaunal Bivalve
Spatial Variability in Recruitment of an Infaunal Bivalve: Experimental Effects of Predator Exclusion on the Softshell Clam (Mya arenaria L.) along Three Tidal Estuaries in Southern Maine, USA Author(s): Brian F. Beal, Chad R. Coffin, Sara F. Randall, Clint A. Goodenow Jr., Kyle E. Pepperman, Bennett W. Ellis, Cody B. Jourdet and George C. Protopopescu Source: Journal of Shellfish Research, 37(1):1-27. Published By: National Shellfisheries Association https://doi.org/10.2983/035.037.0101 URL: http://www.bioone.org/doi/full/10.2983/035.037.0101 BioOne (www.bioone.org) is a nonprofit, online aggregation of core research in the biological, ecological, and environmental sciences. BioOne provides a sustainable online platform for over 170 journals and books published by nonprofit societies, associations, museums, institutions, and presses. Your use of this PDF, the BioOne Web site, and all posted and associated content indicates your acceptance of BioOne’s Terms of Use, available at www.bioone.org/page/terms_of_use. Usage of BioOne content is strictly limited to personal, educational, and non-commercial use. Commercial inquiries or rights and permissions requests should be directed to the individual publisher as copyright holder. BioOne sees sustainable scholarly publishing as an inherently collaborative enterprise connecting authors, nonprofit publishers, academic institutions, research libraries, and research funders in the common goal of maximizing access to critical research. Journal of Shellfish Research, Vol. 37, No. 1, 1–27, 2018. SPATIAL VARIABILITY IN RECRUITMENT OF AN INFAUNAL BIVALVE: EXPERIMENTAL EFFECTS OF PREDATOR EXCLUSION ON THE SOFTSHELL CLAM (MYA ARENARIA L.) ALONG THREE TIDAL ESTUARIES IN SOUTHERN MAINE, USA 1,2 3 2 3 BRIAN F. -
MOLLUSCS Species Names – for Consultation 1
MOLLUSCS species names – for consultation English name ‘Standard’ Gaelic name Gen Scientific name Notes Neologisms in italics der MOLLUSC moileasg m MOLLUSCS moileasgan SEASHELL slige mhara f SEASHELLS sligean mara SHELLFISH (singular) maorach m SHELLFISH (plural) maoraich UNIVALVE SHELLFISH aon-mhogalach m (singular) UNIVALVE SHELLFISH aon-mhogalaich (plural) BIVALVE SHELLFISH dà-mhogalach m (singular) BIVALVE SHELLFISH dà-mhogalaich (plural) LIMPET (general) bàirneach f LIMPETS bàirnich common limpet bàirneach chumanta f Patella vulgata ‘common limpet’ slit limpet bàirneach eagach f Emarginula fissura ‘notched limpet’ keyhole limpet bàirneach thollta f Diodora graeca ‘holed limpet’ china limpet bàirneach dhromanach f Patella ulyssiponensis ‘ridged limpet’ blue-rayed limpet copan Moire m Patella pellucida ‘The Virgin Mary’s cup’ tortoiseshell limpet bàirneach riabhach f Testudinalia ‘brindled limpet’ testudinalis white tortoiseshell bàirneach bhàn f Tectura virginea ‘fair limpet’ limpet TOP SHELL brùiteag f TOP SHELLS brùiteagan f painted top brùiteag dhotamain f Calliostoma ‘spinning top shell’ zizyphinum turban top brùiteag thurbain f Gibbula magus ‘turban top shell’ grey top brùiteag liath f Gibbula cineraria ‘grey top shell’ flat top brùiteag thollta f Gibbula umbilicalis ‘holed top shell’ pheasant shell slige easaig f Tricolia pullus ‘pheasant shell’ WINKLE (general) faochag f WINKLES faochagan f banded chink shell faochag chlaiseach bhannach f Lacuna vincta ‘banded grooved winkle’ common winkle faochag chumanta f Littorina littorea ‘common winkle’ rough winkle (group) faochag gharbh f Littorina spp. ‘rough winkle’ small winkle faochag bheag f Melarhaphe neritoides ‘small winkle’ flat winkle (2 species) faochag rèidh f Littorina mariae & L. ‘flat winkle’ 1 MOLLUSCS species names – for consultation littoralis mudsnail (group) seilcheag làthaich f Fam. -
Gametogenic Cycle of <I>Rangia Cuneata</I> (Mactridae, Mollusca
BULLETIN OF MARINE SCIENCE, 45(1): 130-138, 1989 GAMETOGENIC CYCLE OF RANGIA CUNEATA (MACTRIDAE, MOLLUSCA) IN MOBILE BAY, ALABAMA, WITH COMMENTS ON GEOGRAPHIC VARIATION M. C. Jovanovich and K. R. Marion ABSTRACT Stages of the gametogenic cycle of the brackish water clam Rangia cuneata were investigated in Mobile Bay, Alabama, by histological examination of the gonads. Water temperature and salinity measurements were related to the gametogenic cycle and compared to those made in other studies on the same species in different locations. Clams in the early active phase were found from February through April, and those in the late active phase predominated in May. Gonads were ripe from July through September and were partially spawned from September through October. Clams became spent between November and January. Changes in meat, gonad, and total wet weight reflected the stages of the gametogenic cycle, while length of the shells remained nearly constant year round. The gametogenic cycle of R. cuneata in Mobile Bay followed a similar pattern to that observed in clams studied in other locations, except that gametogenesis began earlier, during late winter, and clams became spent earlier in the fall. It is suggested that the interactive effects of temperature, salinity, and nutrients can account for the differences in the timing and length of the stages of the gametogenic cycle between locations. Rangia cuneata (Gray) is a brackish water clam (Family Mactridae) abundant in the estuaries of the Gulf of Mexico. It is also found throughout the coastal areas of the eastern United States as far north as the upper Chesapeake Bay (Woodburn, 1962; Pfitzenmeyer, 1970). -
Clams” Fauna Along French Coasts
Asian Journal of Research in Animal and Veterinary Sciences 1(1): 1-12, 2018; Article no.AJRAVS.39207 The Regulation of Interspecific Variations of Shell Shape in Bivalves: An Illustration with the Common “Clams” Fauna along French Coasts Jean Béguinot1* 1Biogéosciences, UMR 6282, CNRS, Université Bourgogne Franche-Comté, 6, Boulevard Gabriel, 21000 Dijon, France. Author’s contribution The sole author designed, analyzed, interpreted and prepared the manuscript. Article Information DOI: 10.9734/AJRAVS/2018/39207 Editor(s): (1) Andras Fodor, Department of Animal Sciences, Ohio State University, USA. Reviewers: (1) Mahmoud Abdelhamid Dawood, Kafrelsheikh University, Egypt. (2) Mbadu Zebe Victorine, Democratic Republic of Congo. Complete Peer review History: http://www.sciencedomain.org/review-history/23116 Received 24th November 2017 th Original Research Article Accepted 6 February 2018 Published 10th February 2018 ABSTRACT I report an unexpected negative covariance occurring between two major parameters governing shell growth in marine bivalves, especially within the order Veneroida. This relationship is highlighted, here, considering a set of forty, rather common species of clams collected from French coasts. Interestingly, this negative covariance has two (geometrically related) consequences on the pattern of variation of shell shape at the inter-specific level: (i) An extended range of variation of shell elongation ‘E’ is made compatible with. (ii) A severely restricted range of variation of the ventral convexity ‘K’ of the shell contour. I suggest that: (i) The extended range of interspecific variation of the shell elongation ‘E’ results from a trend towards larger differentiation between species according to this functionally important parameter E, while, in contrast, (ii) The strongly restricted range of variation of the ventral convexity ‘K’ of the shell contour might arguably result from a common need for improved shell resistance, face to mechanical solicitations from the environment, either biotic or abiotic. -
Environmental Heterogeneity and Benthic Macroinvertebrate Guilds in Italian Lagoons Alberto Basset, Nicola Galuppo & Letizia Sabetta
View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by ESE - Salento University Publishing Transitional Waters Bulletin TWB, Transit. Waters Bull. 1(2006), 48-63 ISSN 1825-229X, DOI 10.1285/i1825226Xv1n1p48 http://siba2.unile.it/ese/twb Environmental heterogeneity and benthic macroinvertebrate guilds in italian lagoons Alberto Basset, Nicola Galuppo & Letizia Sabetta Department of Biological and Environmental Sciences and Technologies University of Salento S.P. Lecce-Monteroni 73100 Lecce RESEARCH ARTICLE ITALY Abstract 1 - Lagoons are ecotones between freshwater, marine and terrestrial biotopes, characterized by internal ecosystem heterogeneity, due to patchy spatial and temporal distribution of biotic and abiotic components, and inter-ecosystem heterogeneity, due to the various terrestrial-freshwater and freshwater-marine interfaces. 2 - Here, we carried out an analysis of environmental heterogeneity and benthic macro-invertebrate guilds in a sample of 26 Italian lagoons based on literature produced over a 25 year period.. 3 - In all, 944 taxonomic units, belonging to 13 phyla, 106 orders and 343 families, were recorded. Most species had a very restricted geographic distribution range. 75% of the macroinvertebrate taxa were observed in less than three of the twenty-six lagoons considered. 4 - Similarity among macroinvertebrate guilds in lagoon ecosystems was remarkably low, ranging from 10.5%±7.5% to 34.2%±14.4% depending on the level of taxonomic resolution. 5 - Taxonomic heterogeneity was due to both differences in species richness and to differences in species composition: width of seaward outlet, lagoon surface area and water salinity were the most important factors affecting species richness, together accounting for up to 75% of observed inter-lagoon heterogeneity, while distance between lagoons was the most significant factor affecting similarity of species composition. -
Surfclam Aquaculture Techniq
Final Report Piloting Surf Clam Aquaculture Techniques to Create Commercial Opportunities Award Number: NA16NMF4270241 Award Period: 03/01/2017 – 02/28/2020 Recipient Name: Aquacultural Research Corporation (dba A.R.C. Hatchery) Program Office: Fisheries Headquarters Program Office (FHQ) Program Officer: Deirdre Kimball, 978-281-9290, [email protected] Project Title: Piloting Surf Clam Aquaculture Techniques to Create Commercial Opportunities PIs/PDs: Rick Sawyer Partners: Cape Cod Cooperative Extension/Woods Hole Sea Grant, Cape Cod Commercial Fishermen’s Alliance, Roger Williams University Report Type: Performance Final Report Reporting Period: 03/01/2017 – 02/28/2020 Final Report: Yes Report Due Date: 08/27/2020 1 TABLE OF CONTENTS ACRONYMS/DEFINITIONS ..................................................................................................................4 EXECUTIVE SUMMARY .......................................................................................................................5 PURPOSE ...........................................................................................................................................8 BACKGROUND .............................................................................................................................................. 8 MARKET OPPORTUNITY .................................................................................................................................. 9 IMPORTANCE OF DEVELOPING THIS NEW SPECIES ............................................................................................