The Identity, Distribution, and Impacts of Non-Native Apple Snails in the Continental United States" (2007)
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<I>Marisa Cornuarietis</I>? Part I: Intra- and Inter-Laboratory Variabi
University of Nebraska - Lincoln DigitalCommons@University of Nebraska - Lincoln Valery Forbes Publications Papers in the Biological Sciences 2007 Does Bisphenol A Induce Superfeminization in Marisa cornuarietis? Part I: Intra- and Inter-Laboratory Variability in Test Endpoints Valery E. Forbes University of Nebraska-Lincoln, [email protected] Henriette Selck Roskilde University, [email protected] Annemette Palmqvist Roskilde University, Denmark John Aufderheide ABC Laboratories, Inc., Columbia, Missouri Ryan Warbritton ABC Laboratories, Inc., Columbia, Missouri See next page for additional authors Follow this and additional works at: https://digitalcommons.unl.edu/biosciforbes Part of the Pharmacology, Toxicology and Environmental Health Commons Forbes, Valery E.; Selck, Henriette; Palmqvist, Annemette; Aufderheide, John; Warbritton, Ryan; Pounds, Nadine; Thompson, Roy; and Caspers, Norbert, "Does Bisphenol A Induce Superfeminization in Marisa cornuarietis? Part I: Intra- and Inter-Laboratory Variability in Test Endpoints" (2007). Valery Forbes Publications. 25. https://digitalcommons.unl.edu/biosciforbes/25 This Article is brought to you for free and open access by the Papers in the Biological Sciences at DigitalCommons@University of Nebraska - Lincoln. It has been accepted for inclusion in Valery Forbes Publications by an authorized administrator of DigitalCommons@University of Nebraska - Lincoln. Authors Valery E. Forbes, Henriette Selck, Annemette Palmqvist, John Aufderheide, Ryan Warbritton, Nadine Pounds, Roy Thompson, and Norbert Caspers This article is available at DigitalCommons@University of Nebraska - Lincoln: https://digitalcommons.unl.edu/ biosciforbes/25 Published in Ecotoxicology and Environmental Safety 66 (2007), pp. 309-318; DOI: 10.1016/j.ecoenv.2006.10.014. Copyright © 2007 Elsevier Inc. Used by permission. Submitted July 10, 2006; revised October 20, 2006; accepted October 25, 2006; published online December 8, 2006. -
First Report of the Invasive Snail Pomacea Canaliculata in Kenya Alan G
Buddie et al. CABI Agric Biosci (2021) 2:11 https://doi.org/10.1186/s43170-021-00032-z CABI Agriculture and Bioscience RESEARCH Open Access First report of the invasive snail Pomacea canaliculata in Kenya Alan G. Buddie1* , Ivan Rwomushana2 , Lisa C. Oford1 , Simeon Kibet3, Fernadis Makale2 , Djamila Djeddour1 , Giovanni Cafa1 , Koskei K. Vincent4, Alexander M. Muvea3 , Duncan Chacha2 and Roger K. Day2 Abstract Following reports of an invasive snail causing crop damage in the expansive Mwea irrigation scheme in Kenya, samples of snails and associated egg masses were collected and sent to CABI laboratories in the UK for molecular identifcation. DNA barcoding analyses using the cytochrome oxidase subunit I gene gave preliminary identifcation of the snails as Pomacea canaliculata, widely considered to have the potential to be one of the most invasive inver- tebrates of waterways and irrigation systems worldwide and which is already causing issues throughout much of south-east Asia. To the best of our knowledge, this is the frst documented record of P. canaliculata in Kenya, and the frst confrmed record of an established population in continental Africa. This timely identifcation shows the beneft of molecular identifcation and the need for robust species identifcations: even a curated sequence database such as that provided by the Barcoding of Life Data system may require additional checks on the veracity of the underlying identifcations. We found that the egg mass tested gave an identical barcode sequence to the adult snails, allowing identifcations to be made more rapidly. Part of the nuclear elongation factor 1 alpha gene was sequenced to confrm that the snail was P. -
INTRODUCTION the Peruvian "Lead Snail"
RADIATION DECONTAMINATION OF PERUVIAN MARINE "LEAD SNAIL" (THAIS CHOCOLATA) INOCULATED WITH VIBRIO CHOLERAE Ol EL TOR Z. TORRES Instituto Peruano de Energia Nuclear XA0100965 F. ARIAS Universidad Nacional del Centro del Peru Peru Abstract In vivo studies were conducted using marine snails (Thais chocolatd) artificially contaminated in a tank containing sea water inoculated with a pure culture of Vibrio cholerae, such that 105 colony forming units per gram (CFU/g) were uptaken by the mollusks in 1.5 h. A radiation Di0 value of 0.12 kGy was determined for V. cholerae upon subsequent irradiation of the live snails at doses in the range 0.0-4.0 kGy. A second series of tests were conducted using naturally contaminated, non-inoculated snails, shelled and packaged simulating commercial procedures, irradiated at 0.0-3.0 kGy, and stored at 2-4°C. These tests indicated that a dose of 2.0 kGy was optimal to extend the microbiological shelf- life of the snails to 21 days without inducing significant adverse sensory or chemical effects. Non- irradiated snails similarly treated and stored spoiled after only seven days. INTRODUCTION The Peruvian "lead snail" (Thais chocolatd) is a mollusk having a single, heavy, large and wide valve, uniformly brown in color, from which an orange internal columnella and bluish interior can be observed. Its average size is 88-mm long by 35-mm dia. (Rosales, 1988). This snail is typically found in marine rocky beds, where it forms banks at a depth of some 30 m, affixing itself to rocks in temperate waters (15-17°C). -
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. -
Species Assessments We Identified 80 Freshwater Mollusk Species We
Species Assessments We identified 80 freshwater mollusk species we believe are currently sold in the Great Lakes region and conducted a risk assessment for each using the Notre Dame STAIRmollusk tool, answering as many of the six questions as possible. Using a fecundity of 158 as the divide between low and high risk (see STAIRmollusk tool, question 2), each species was ranked according to the likelihood that it will become invasive. Risk Explanation Low Species either has no climate match to the Great Lakes OR has a fecundity of less than 158, no record of pathogens and no history of invasion elsewhere. High Species has a climate match to the Great Lakes and at least one of the following characteristics: a fecundity over 158, known pathogens, or a history of invasion elsewhere. Potential Species has a climate match to the Great Lakes but fecundity is unknown. ? Data to assess climate match is insufficient and fecundity is unknown. Mollusk Species Risk Assessments for the Great Lakes Using 2020-2029 Climate Conditions (Great Lakes = Hardiness Zone 8 or below) Established in Hardiness Risk Factor(s) in Species Name Risk Great Lakes zone ≤ 7? Evidence?* Ancylus fluviatilis Yes N/A Low Anodonta cygnea Yes No fecundity data Potential Bellamya chinensis (=Cipangopaludina chinensis, C. chinensis maleata, and Yes Yes Pathogens High Viviparus malleatus) Bellamya japonica (=Cipangopaludina Yes Yes Pathogens High japonica) Biomphalaria alexandrina Fecundity, No Low pathogens Biomphalaria glabrata Fecundity, Yes pathogens, High Invasion history Biomphalaria -
Life in the Fast Lane – from Hunted to Hunter Middle School Version
Life in the Fast Lane: From Hunted to Hunter Lab Activity: Dissection of a Squid-A Cephalopod Middle School Version Lesson by Kevin Goff Squid and octopi are cephalopods [say “SEFF-uh-luh-pods”]. The name means “head-foot,” because these animals have VIDEOS TO WATCH gripping, grasping arms that emerge straight from their heads. Watch this short clip on the Shape of Life At first glance, they seem totally different from every other website to become familiar with basic mollusc anatomy: creature on Earth. But in fact, they are molluscs, closely related • “Mollusc Animation: Abalone Body to snails, slugs, clams, oysters, mussels, and scallops. Like all Plan” (under Animation; 1.5 min) modern day molluscs, cephalopods descended from simple, Note the abalone’s foot, radula, and shell- snail-like ancestors. These ancient snails crept sluggishly on making mantle. These were present in the seafloor over 500 million years ago. Their shells resembled the snail-like ancestor of all molluscs an umbrella, probably to shield them from the sun’s intense ultraviolet radiation. When all sorts of new predators appeared on the scene, with powerful jaws or crushing claws, a thin shell was no match for such weapons. Over time, some snails evolved thicker shells, often coiled and spiky. These heavy shells did a better job of fending off predators, but they came with a price: They were costly to build and a burden to lug around. These snails sacrificed speed for safety. This lifestyle worked fine for many molluscs. And, still today, nearly 90% of all molluscs are heavily armored gastropods that crawl around at a snail’s pace. -
Population Dynamics of Pomacea Flagellata
Limnetica, 29 (2): x-xx (2011) Limnetica, 34 (1): 69-78 (2015). DOI: 10.23818/limn.34.06 c Asociación Ibérica de Limnología, Madrid. Spain. ISSN: 0213-8409 Population dynamics of the native apple snail Pomacea flagellata (Ampullariidae) in a coastal lagoon of the Mexican Caribbean Frank A. Ocaña∗, Alberto de Jesús-Navarrete, José Juan Oliva-Rivera, Rosa María de Jesús- Carrillo and Abel Abraham Vargas-Espósitos1 Departamento de Sistemática y Ecología Acuática. El Colegio de la Frontera Sur (ECOSUR), Unidad Chetumal. Av. Centenario km 5.5, Chetumal, Quintana Roo, México ∗ Corresponding author: [email protected] 2 Received: 25/07/2014 Accepted: 20/11/2014 ABSTRACT Population dynamics of the native apple snail Pomacea flagellata (Ampullariidae) in a coastal lagoon of the Mexican Caribbean Apple snails Pomacea spp inhabit tropical and subtropical freshwater environments and are of ecological and economic importance. To evaluate the population dynamics of P. flagellata, monthly samples were collected from Guerrero Lagoon (Yucatán Peninsula) from June 2012 to May 2013. The measured environmental variables did not differ significantly among the sampling stations. However, salinity was lower during the rainy season, and the temperature was lower during the north season (i.e., the season dominated by cold fronts). The snails were more abundant during the rainy season, and they were restricted to the portion of the lagoon that receives freshwater discharges. The snails ranged from 4 to 55 mm in size, with a –1 maximum estimated length of L∞ = 57.75 mm and a growth rate of K = 0.68 y (the abbreviation “y” means “year”) with a seasonal oscillation; the lowest growth rate occurred in early December. -
Diagnóstico/Resumo Executivo
GOVERNADOR DO ESTADO DE MINAS GERAIS Antonio Augusto Anastasia SECRETÁRIO DE ESTADO DE MEIO AMBIENTE E DESENVOLVIMENTO SUSTENTÁVEL – SEMAD José Carlos Carvalho INSTITUTO ESTADUAL DE FLORESTAS – IEF Diretor Geral Shelley de Souza Carneiro Vice – Diretor Geral Inês Rasuck Diretor de Biodiversidade Célio Murilo de Carvalho Valle Gerência de Proteção a Fauna, Flora e Bioprospecção – GPFAB Miguel Ribon Júnior Gerência de Proteção da Fauna Aquática e Pesca - GFAPE Marcelo Coutinho Amarante Gerência de Projetos e Pesquisas - GPROP José Medina da Fonseca Gerência de Apoio à Regularização Ambiental e Unidades Colegiadas - GEARA Célio Lessa Couto Júnior Diretora de Áreas Protegidas Gerência de Criação e Implantação de Áreas Protegidas - GCIAP Silvério da Rocha Seabra Gerência de Gestão de Áreas Protegidas - GEGAP Roberto Coelho Alvarenga Gerência de Regularização Fundiária - GEREF Charlis Alessandro Gerência de Gestão da Compensação Ambiental - GECAM Ricardo Cabral Gerência de Prevenção e Combate a Incêndios Florestais - GPCIF Bruno Henrique da Silva Passini EQUIPE DE SUPERVISÃO E ACOMPANHAMENTO TÉCNICO INSTITUTO ESTADUAL DE FLORESTAS – IEF RESPONSABILIDADE TÉCNICA GEGAP/DIAP Olíria Fontani Villarinhos Técnicos GEGAP Adélia Lima Benito Drummond Cristiane Fróes Infaide Patrícia do Espírito Santo Marcos Martins (Estagiário) Ronaldo Ferreira Mariotoni Machado Pereira (PROMATA) Sônia Maria Carlos Carvalho (PROMATA) Técnicos GPROP Denise Fontes Janaína Aparecida Batista Aguiar Priscila Moreira Andrade ESCRITÓRIO REGIONAL CENTRO-SUL Supervisor Regional Cláudio Bastos PARQUE ESTADUAL SERRA VERDE Gerente André Portugal Santana EQUIPE DO PARQUE ESTADUAL SERRA VERDE André Portugal Santana Thomaz Rocha Pinto Juliana de Carvalho Ribeiro Soares TÉCNICOS DA FUNDAÇÃO DE PARQUES MUNICIPAIS – PBH Edanise Maria B. G. Reis Afonso Henrique Ribeiro EQUIPE DE ELABORAÇÃO AMBIENTE BRASIL CENTRO DE ESTUDOS COORDENAÇÃO GERAL Luiz Eduardo Ferreira Fontes, Engo-Agrônomo, D.Sc. -
Applesnails of Florida Pomacea Spp. (Gastropoda: Ampullariidae) 1 Thomas R
EENY323 Applesnails of Florida Pomacea spp. (Gastropoda: Ampullariidae) 1 Thomas R. Fasulo2 Introduction in the northern tier of Florida counties and northward except where the water is artificially heated by industrial Applesnails are larger than most freshwater snails and can wastewater or in warm springs. It occurs as far west as be separated from other freshwater species by their oval the Choctawhatchee River. It is easily distinguished from shell that has the umbilicus (the axially aligned, hollow, other applesnails in Florida by the low, strongly rounded cone-shaped space within the whorls of a coiled mollusc shell spike, and measures about 40–70 mm (Capinera and shell) of the shell perforated or broadly open. There are four White 2011). species of Pomacea in Florida, one of which is native and considered beneficial (Capinera and White 2011). Species Found in Florida Of the four species of applesnails in Florida, only the Florida applesnail is a native species, while the other three species are introduced. All are tropical/subtropical species in the genus Pomacea, and are not known to withstand water temperatures below 10°C (FFWCC 2006). • Pomacea paludosa (Say 1829), the Florida applesnail, occurs throughout peninsular Florida (Thompson 1984). Based on fossil finds, it is a native snail that has existed in Florida since the Pliocene. It is also native to Cuba and Hispaniola (FFWCC 2006). Collections have been made in Alabama, Georgia, Hawaii, Louisiana, Oklahoma and South Carolina (USGS 2006). It is the principal Figure 1. Florida applesnail, Pomacea paludosa (Say 1829). food of the Everglades kite, Rostrhamus sociabilis Credits: Bill Frank, http://www.jacksonvilleshells.org plumbeus Ridgway, and should be considered beneficial. -
Pomacea Canaliculata (Lamarck, 1822)
Pomacea canaliculata (Lamarck, 1822) Diagnostic features Distinguished from Pomacea diffusa by its larger sized shell (up to 75 mm in height) and deeply channelled suture. Animal with distinctive head-foot; snout uniquely with a pair of Pomacea canaliculata (adult size up to 75 mm in height) Characteristic pink egg mass, commonly laid on vegetation. distal, long, tentacle-like processes; cephalic tentacles very long. A long 'siphon' is also present. Classification Pomacea canaliculata (Lamarck, 1822) Common name: Golden apple snail Class Gastropoda I nfraclass Caenogastropoda I nformal group Architaenioglossa Order Ampullarida Superfamily Ampullarioidea Family Ampullariidae Genus Pomacea Perry, 1810 Original name: Ampullaria canaliculata Lamarck, 1822. Lamarck, J. B. P. A. de M. de (1822). Histoire naturelle des animaux sans vertèbres Tome sixième.LĘauteur, Paris. 1-232 pp. Type locality: Laguna Guadeloupe ? Santa Fe, Argentina (as ėRivierès de la Guadeloupe) Biology and ecology This species lives on sediment and on aquatic and semi-aquatic vegetation. t lays pink coloured egg masses on plants above the waterline. t has become a major pest of aquatic crops as it eats living plants including rice and taro crops. Distribution ntroduced from South America into the southern United States, East Asia, islands of the ndian Ocean and New Guinea. Notes This pest species has not as yet entered Australia, but ought to be considered a significant risk due to its presence as an invasive in the adjacent ndo-west Pacific region. Two other south Asian ampullariid species have regularly been intercepted by Australian Biosecurity ĕ they are Pila ampullacea (Linnaeus, 1758) and Pila globosa (Swainson, 1822). -
The Malacological Society of London
ACKNOWLEDGMENTS This meeting was made possible due to generous contributions from the following individuals and organizations: Unitas Malacologica The program committee: The American Malacological Society Lynn Bonomo, Samantha Donohoo, The Western Society of Malacologists Kelly Larkin, Emily Otstott, Lisa Paggeot David and Dixie Lindberg California Academy of Sciences Andrew Jepsen, Nick Colin The Company of Biologists. Robert Sussman, Allan Tina The American Genetics Association. Meg Burke, Katherine Piatek The Malacological Society of London The organizing committee: Pat Krug, David Lindberg, Julia Sigwart and Ellen Strong THE MALACOLOGICAL SOCIETY OF LONDON 1 SCHEDULE SUNDAY 11 AUGUST, 2019 (Asilomar Conference Center, Pacific Grove, CA) 2:00-6:00 pm Registration - Merrill Hall 10:30 am-12:00 pm Unitas Malacologica Council Meeting - Merrill Hall 1:30-3:30 pm Western Society of Malacologists Council Meeting Merrill Hall 3:30-5:30 American Malacological Society Council Meeting Merrill Hall MONDAY 12 AUGUST, 2019 (Asilomar Conference Center, Pacific Grove, CA) 7:30-8:30 am Breakfast - Crocker Dining Hall 8:30-11:30 Registration - Merrill Hall 8:30 am Welcome and Opening Session –Terry Gosliner - Merrill Hall Plenary Session: The Future of Molluscan Research - Merrill Hall 9:00 am - Genomics and the Future of Tropical Marine Ecosystems - Mónica Medina, Pennsylvania State University 9:45 am - Our New Understanding of Dead-shell Assemblages: A Powerful Tool for Deciphering Human Impacts - Sue Kidwell, University of Chicago 2 10:30-10:45 -
Symbionts and Diseases Associated with Invasive Apple Snails
Symbionts and diseases associated with invasive apple snails Cristina Damborenea, Francisco Brusa and Lisandro Negrete CONICET, División Zoología Invertebrados, Museo de La Plata (FCNyM-UNLP), Paseo del Bosque, 1900 La Plata, Argentina. Email: [email protected], fbrusa@ fcnym.unlp.edu.ar, [email protected] Abstract This contribution summarizes knowledge of organisms associated with apple snails, mainly Pomacea spp., either in a facultative or obligate manner, paying special attention to diseases transmitted via these snails to humans. A wide spectrum of epibionts on the shell and operculum of snails are discussed. Among them algae, ciliates, rotifers, nematodes, flatworms, oligochaetes, dipterans, bryozoans and leeches are facultative, benefitting from the provision of substrate, transport, access to food and protection. Among obligate symbionts, five turbellarian species of the genusTemnocephala are known from the branchial cavity, with T. iheringi the most common and abundant. The leech Helobdella ampullariae also spends its entire life cycle inside the branchial cavity; two copepod species and one mite are found in different sites inside the snails. Details of the nature of the relationships of these specific obligate symbionts are poorly known. Also, extensive studies of an intracellular endosymbiosis are summarized. Apple snails are the first or second hosts of several digenean species, including some bird parasites.A number of human diseases are transmitted by apple snails, angiostrongyliasis being the most important because of the potential seriousness of the disease. Additional keywords: Ampullariidae, Angiostrongylus, commensals, diseases, epibionts, parasites, Pomacea, symbiosis 73 Introduction The term “apple snail” refers to a number of species of freshwater snails belonging to the family Ampullariidae (Caenogastropoda) inhabiting tropical and subtropical regions (Hayes et al., 2015).