Introduction to Physidae (Gastropoda: Hygrophila); Biogeography, Classification, Morphology
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Wo 2008/134510 A2
(12) INTERNATIONAL APPLICATION PUBLISHED UNDER THE PATENT COOPERATION TREATY (PCT) (19) World Intellectual Property Organization International Bureau (43) International Publication Date (10) International Publication Number 6 November 2008 (06.11.2008) PCT WO 2008/134510 A2 (51) International Patent Classification: (74) Agents: WOLIN, Harris, A. et al; Myers Wolin LLC, AOlN 45/00 (2006.01) AOlN 43/04 (2006.01) 100 Headquarters Plaza, North Tower, 6th Floor, Morris- AOlN 65/00 (2006.01) town, NJ 07960-6834 (US). (21) International Application Number: (81) Designated States (unless otherwise indicated, for every PCT/US2008/061577 kind of national protection available): AE, AG, AL, AM, AO, AT,AU, AZ, BA, BB, BG, BH, BR, BW, BY, BZ, CA, (22) International Filing Date: 25 April 2008 (25.04.2008) CH, CN, CO, CR, CU, CZ, DE, DK, DM, DO, DZ, EC, EE, EG, ES, FT, GB, GD, GE, GH, GM, GT, HN, HR, HU, ID, (25) Filing Language: English IL, IN, IS, JP, KE, KG, KM, KN, KP, KR, KZ, LA, LC, LK, LR, LS, LT, LU, LY, MA, MD, ME, MG, MK, MN, (26) Publication Language: English MW, MX, MY, MZ, NA, NG, NI, NO, NZ, OM, PG, PH, PL, PT, RO, RS, RU, SC, SD, SE, SG, SK, SL, SM, SV, (30) Priority Data: SY, TJ, TM, TN, TR, TT, TZ, UA, UG, US, UZ, VC, VN, 11/740,275 25 April 2007 (25.04.2007) US ZA, ZM, ZW (71) Applicant (for all designated States except US): DICTUC (84) Designated States (unless otherwise indicated, for every S.A. [CUCL]; Rut 96.691.330-4, Avda Vicuna Mackenna kind of regional protection available): ARIPO (BW, GH, 4860, Macul, Santiago, 7820436 (CL). -
Tampa Bay Benthic Monitoring Program: Status of Middle Tampa Bay: 1993-1998
Tampa Bay Benthic Monitoring Program: Status of Middle Tampa Bay: 1993-1998 Stephen A. Grabe Environmental Supervisor David J. Karlen Environmental Scientist II Christina M. Holden Environmental Scientist I Barbara Goetting Environmental Specialist I Thomas Dix Environmental Scientist II MARCH 2003 1 Environmental Protection Commission of Hillsborough County Richard Garrity, Ph.D. Executive Director Gerold Morrison, Ph.D. Director, Environmental Resources Management Division 2 INTRODUCTION The Environmental Protection Commission of Hillsborough County (EPCHC) has been collecting samples in Middle Tampa Bay 1993 as part of the bay-wide benthic monitoring program developed to (Tampa Bay National Estuary Program 1996). The original objectives of this program were to discern the ―health‖—or ―status‖-- of the bay’s sediments by developing a Benthic Index for Tampa Bay as well as evaluating sediment quality by means of Sediment Quality Assessment Guidelines (SQAGs). The Tampa Bay Estuary Program provided partial support for this monitoring. This report summarizes data collected during 1993-1998 from the Middle Tampa Bay segment of Tampa Bay. 3 METHODS Field Collection and Laboratory Procedures: A total of 127 stations (20 to 24 per year) were sampled during late summer/early fall ―Index Period‖ 1993-1998 (Appendix A). Sample locations were randomly selected from computer- generated coordinates. Benthic samples were collected using a Young grab sampler following the field protocols outlined in Courtney et al. (1993). Laboratory procedures followed the protocols set forth in Courtney et al. (1995). Data Analysis: Species richness, Shannon-Wiener diversity, and Evenness were calculated using PISCES Conservation Ltd.’s (2001) ―Species Diversity and Richness II‖ software. -
Nueva Especie De Notodiaphana Thiele, 1931 Del Océano Atlántico Y
Rev. Acad. Canar. Cicnc, Vol. XXV, 15-24 (diciembre de 2013) NUEVA ESPECIE DE Notodiaphana THIELE, 1931 DEL OCEANO ATLANTICO Y NUEVA UBICACION GENERICA PARA^s alayoi ESPINOSA & ORTEA, 2004 (GASTROPODA: OPISTHOBRANCHIA: CEPHALASPIDEA) 1 2 3 J. Ortea , L. Moro & J. Espinosa 1 Profesor jubilado, Departamento BOS, Universidad de Oviedo. Oviedo, Espana 2 Servicio de Biodiversidad, Gobierno de Canarias, Edif. Usos Multiples I Av. Anaga n° 35, PI. 11, 38071 Tenerife, Islas Canarias [email protected] 3 a Instituto de Oceanologia, Avda. l n° 18406, E. 184 y 186, Playa, La Habana, Cuba [email protected] RESUMEN Se describe la primera especie atlantica del genero Notodiaphana Thiele, 1931 a par- tir de ejemplares colectados en Bahamas, Cuba y Canarias. Asimismo, se propone un nuevo genero para Atys alayoi Espinosa & Ortea, 2004, un pequeno cefalaspideo del mar Caribe. Palabras clave: Mollusca, Cephalaspidea, Notodiaphana, nueva especie, nuevo ge- nero, oceano Atlantico, mar Caribe. ABSTRACT We describe the first species of the genus Notodiaphana Thiele, 1931, in the Atlantic Ocean from specimens collected in the Bahamas, Cuba and the Canary Islands, and proposes a new genus for Atys alayoi Espinosa and Ortea, 2004, a small Caribbean Sea cephalaspidean. Key words: Mollusca, Cephalaspidea, Notodiaphana, new species, new genus, At- lantic Ocean, Caribbean Sea. 1. INTRODUCCION El genero Notodiaphana Thiele, 1917, fue introducido por THIELE [17] para la espe- cie Bulla fragilis Velain, 1877, descrita originalmente por VELAIN [22] a partir de un ejem- plar de 2'5 x 1 mm (fig. 1) colectado bajo piedras durante la bajamar, en el interior de un crater de la isla Saint Paul, en el oceano Indico Sur. -
Planorbidae) from New Mexico
FRONT COVER—See Fig. 2B, p. 7. Circular 194 New Mexico Bureau of Mines & Mineral Resources A DIVISION OF NEW MEXICO INSTITUTE OF MINING & TECHNOLOGY Pecosorbis, a new genus of fresh-water snails (Planorbidae) from New Mexico Dwight W. Taylor 98 Main St., #308, Tiburon, California 94920 SOCORRO 1985 iii Contents ABSTRACT 5 INTRODUCTION 5 MATERIALS AND METHODS 5 DESCRIPTION OF PECOSORBIS 5 PECOSORBIS. NEW GENUS 5 PECOSORBIS KANSASENSIS (Berry) 6 LOCALITIES AND MATERIAL EXAMINED 9 Habitat 12 CLASSIFICATION AND RELATIONSHIPS 12 DESCRIPTION OF MENETUS 14 GENUS MENETUS H. AND A. ADAMS 14 DESCRIPTION OF MENETUS CALLIOGLYPTUS 14 REFERENCES 17 Figures 1—Pecosorbis kansasensis, shell 6 2—Pecosorbis kansasensis, shell removed 7 3—Pecosorbis kansasensis, penial complex 8 4—Pecosorbis kansasensis, reproductive system 8 5—Pecosorbis kansasensis, penial complex 9 6—Pecosorbis kansasensis, ovotestis and seminal vesicle 10 7—Pecosorbis kansasensis, prostate 10 8—Pecosorbis kansasensis, penial complex 10 9—Pecosorbis kansaensis, composite diagram of penial complex 10 10—Pecosorbis kansasensis, distribution map 11 11—Menetus callioglyptus, reproductive system 15 12—Menetus callioglyptus, penial complex 15 13—Menetus callioglyptus, penial complex 16 14—Planorbella trivolvis lenta, reproductive system 16 Tables 1—Comparison of Menetus and Pecosorbis 13 5 Abstract Pecosorbis, new genus of Planorbidae, subfamily Planorbulinae, is established for Biomphalaria kansasensis Berry. The species has previously been known only as a Pliocene fossil, but now is recognized in the Quaternary of the southwest United States, and living in the Pecos Valley of New Mexico. Pecosorbis is unusual because of its restricted distribution and habitat in seasonal rock pools. Most similar to Menetus, it differs in having a preputial organ with an external duct, no spermatheca, and a penial sac that is mostly eversible. -
Gundlachia Radiata (Guilding, 1828): First Record Of
ISSN 1809-127X (online edition) © 2011 Check List and Authors Chec List Open Access | Freely available at www.checklist.org.br Journal of species lists and distribution N Mollusca, Gastropoda, Heterobranchia, Ancylidae, Gundlachia radiata (Guilding, 1828): First record of ISTRIBUTIO occurrence for the northwestern region of Argentina D 1* 2 RAPHIC Ximena Maria Constanza Ovando , Luiz Eduardo Macedo de Lacerda and Sonia Barbosa dos G 2 EO Santos G N O 1 Facultad de Ciencias Naturales e Instituto Miguel Lillo. Miguel Lillo 205. CP 4000 Tucumán, Argentina. 2 Universidade do Estado do Río de Janeiro, Instituto de Biologia Roberto Alcantara Gomes, Laboratório de Malacologia. Rua São Francisco Xavier OTES 524. PHLC 525/2, CEP 20550-900, Rio de Janeiro, RJ, Brasil. N * Corresponding author. E-mail: [email protected] Abstract: Gundlachia radiata (Guilding, 1828), in northwestern region (Jujuy province), Argentina. Adult and juveniles specimens of this freshwater limpet were collected in In the present paper we report for the first time the presence of point of occurrence of G. radiata in South America. As a result, the distributional range of this species is increased and the two temporary water bodies. This record represents the first report of this species in Argentina but also is the southernmost species richness of Ancylidae in Argentina is incremented to a total of seven species classified in four genera. The Ancylidae sensu latum are freshwater pulmonate snails, characterized by a pateliform shell. Ancylidae are cosmopolitan, and according to Santos (2003) there are seven genera in South America: Anisancylus Pilsbry, 1924; Gundlachia Pfeiffer, 1849; Hebetancylus Pilsbry, 1913; Uncancylus Pilsbry, 1913; Burnupia Walker, 1912; Ferrissia Walker, 1913 and Laevapex Walker, 1903. -
Change of Status and Name for a Hawaiian
Published online: 11 August 2016 ISSN (online): 2376-3191 Records of the Hawaii Biological Survey for 2015. Edited by Neal L. Evenhuis. Bishop Museum Occasional Papers 118: 5 –8 (2016) Change of Status and Name for a Hawaiian Freshwater Limpet : Ancylus sharpi Sykes , 1900 , is the Invasive North American Ferrissia californica (Rowell , 1863) , Formerly Known as Ferrissia fragilis (Tryon , 1863) (Gastropoda : Planorbidae : Ancylinae) 1 CARl C. C HRISteNSeN 2 Bishop Museum, 1525 Bernice Street, Honolulu, Hawaiʻi 96817-2704, USA; email: [email protected] the freshwater limpet heretofore known as Ferrissia sharpi (Sykes, 1900) was described as Ancylus sharpi from material collected on the Island of O‘ahu (Sykes 1900). the dis - cussion of the species by Hubendick (1967) added little new information, but by the end of the 20th century it had been reported from the islands of Kauaʻi and Hawaiʻi in addition to its type locality (Cowie et al. 1995; Cowie 1997). Recent surveys of Hawaiian stream fauna have recorded it from numerous localities on those islands and have added the islands of Moloka‘i and Maui to its known range within the state of Hawaiʻi (englund & Godwin 2002; englund & Preston 2002; Anthony et al . 2004; Brasher et al. 2004; Parham et al . 2008). Ferrissia sharpi has been a cryptogenic species in the Hawaiian fauna as its status as native or introduced has been unclear. Most recent authors have regarded its status as uncertain (Cowie et al. 1995; Cowie 1997, 1998; englund & Godwin 2002; englund & Preston 2002; Ziegler 2002; Anthony et al . 2004; Brasher et al. 2004), but Parham et al. -
“Opisthobranchia”! a Review on the Contribution of Mesopsammic Sea Slugs to Euthyneuran Systematics
Thalassas, 27 (2): 101-112 An International Journal of Marine Sciences BYE BYE “OPISTHOBRANCHIA”! A REVIEW ON THE CONTRIBUTION OF MESOPSAMMIC SEA SLUGS TO EUTHYNEURAN SYSTEMATICS SCHRÖDL M(1), JÖRGER KM(1), KLUSSMANN-KOLB A(2) & WILSON NG(3) Key words: Mollusca, Heterobranchia, morphology, molecular phylogeny, classification, evolution. ABSTRACT of most mesopsammic “opisthobranchs” within a comprehensive euthyneuran taxon set. During the last decades, textbook concepts of “Opisthobranchia” have been challenged by The present study combines our published morphology-based and, more recently, molecular and unpublished topologies, and indicates that studies. It is no longer clear if any precise distinctions monophyletic Rhodopemorpha cluster outside of can be made between major opisthobranch and Euthyneura among shelled basal heterobranchs, acte- pulmonate clades. Worm-shaped, mesopsammic taxa onids are the sister to rissoellids, and Nudipleura such as Acochlidia, Platyhedylidae, Philinoglossidae are the basal offshoot of Euthyneura. Furthermore, and Rhodopemorpha were especially problematic in Pyramidellidae, Sacoglossa and Acochlidia cluster any morphology-based system. Previous molecular within paraphyletic Pulmonata, as sister to remaining phylogenetic studies contained a very limited sampling “opisthobranchs”. Worm-like mesopsammic hetero- of minute and elusive meiofaunal slugs. Our recent branch taxa have clear independent origins and thus multi-locus approaches of mitochondrial COI and 16S their similarities are the result of convergent evolu- rRNA genes and nuclear 18S and 28S rRNA genes tion. Classificatory and evolutionary implications (“standard markers”) thus included representatives from our tree hypothesis are quite dramatic, as shown by some examples, and need to be explored in more detail in future studies. (1) Bavarian State Collection of Zoology. Münchhausenstr. -
Gastropoda, Acteonidae) and Remarks on the Other Mediterranean Species of the Family Acteonidae D’Orbigny, 1835
BASTERIA, 60: 183-193, 1996 Central Tyrrhenian sea Mollusca: XI. of Callostracon Description tyrrhenicum sp. nov. (Gastropoda, Acteonidae) and remarks on the other Mediterranean species of the family Acteonidae d’Orbigny, 1835 Carlo Smriglio Via di Valle Aurelia 134, 1-00167 Rome, Italy & Paolo Mariottini Dipartimento di Biologia, Terza Universita degli Studi di Roma, Via Ostiense 173, 1-00154 Rome, Italy A new acteonid species, collected in the Central Tyrrhenian Sea, is here described. It is placed in Callostracon and named C. Hamlin, 1884, tyrrhenicum. The description is based on shell morpho- logyonly. Remarks on the four bathyal and the three infralittoral species ofthe familyActeonidae known from the Mediterranean Sea, are also featured. Key-words: Gastropoda, Opisthobranchia, Acteonidae, Callostracon, taxonomy, bathyal fauna, Central Tyrrhenian Sea, Italy. INTRODUCTION In the framework of carried an investigation out over the past decade, we continue to characterize the bathyal faunal assemblages from the Central Tyrrhenian Sea, off the Latial coast (Italy) (Smriglio et al., 1987, 1990, 1992, 1993). In particular, we are interested in the molluscan fauna occurring in the deep-sea coral (biocoenose des and des coraux blancs, CB) muddy-bathyal (biocoenose vases bathyales, VB) commu- nities & of this In this we describe of (Peres Picard, 1964) area. paper a new species acteonid, Callostracon tyrrhenicum, from material dredged in a deep-sea coral bank off the coast. Latial Among the molluscan fauna associated with C. tyrrhenicum, we have iden- tified four which bathyal acteonids, we think worth reporting: Acteon monterosatoi Crenilabium Dautzenberg, 1889, exile (Jeffreys, 1870, ex Forbes ms.), Japonacteon pusillus and Liocarenus (McGillavray, 1843), globulinus (Forbes, 1844). -
Corel Ventura
Ruthenica, 2005, 15(2): 119-124. ©Ruthenica, 2005 New data on the species of the genus Cochlicopa (Gastropoda, Pulmonata) Alexey L. MAMATKULOV A. N. Severtzov Institute of Ecology and Evolution, Russian Academy of Sciences, Leninskyi Prospect 33, Moscow 119071, RUSSIA ABSTRACT. Structural peculiarities of male repro- evidence was presented that self-fertilization is the ductive tract of Cochlicopa lubrica (Müller, 1704) main but not a single breeding mode of Cochlicopa enable to assume that reproduction takes place all over [Ambruster, Schlegel, 1994]. It was unknown whet- the warm period. The male genitalia condition referred her these species possess spermatophores. to as lubrica-type is a spermatogenesis (male) phase. The purpose of the present study was to find out Spermatophore of Cochlicopa lubrica is described. what are lubrica-type male genitalia; whether a sper- Anatomical investigation confirms that C. repentina is matophore exists and what is the duration of repro- a synonym of C. lubrica. duction period. The investigation was carried out in Tula region, Central Russia. During the investigation about 320 specimens of the two Cochlicopa species Introduction have been dissected. According to the last guide to Pupillina molluscs Material [Schileyko, 1984], three Cochlicopa species occur in Eastern Europe: Cochlicopa lubrica (Müller, Cochlicopa lubrica (Müller, 1774) 1774), C. lubricella (Porro, 1838) and C. nitens 292 specimens of Cochlicopa lubrica from 26 localities (Gallenstein, 1852). The species can be easily dis- were examined. They were collected as follows: 12 spe- tinguished by shell size. Genital organs of the genus, cimens from Belousov Park, Tula, on April 12, 2001; as in most Pupillina, are characterized by the pre- 11 specimens from Michurino Settlement: 3 on April 15, sence of a peculiar appendix in the male tract. -
Glyptophysa (Glyptophysa) Novaehollandica (Bowdich, 1822)
Glyptophysa (Glyptophysa) novaehollandica (Bowdich, 1822) Disclaimer This genus is in need of revision, as the species concepts we have used have not been rigorously tested. Unpublished molecular Glyptophysa (Glyptophysa) novaehollandica Glyptophysa novaehollandica, ventral view of (adult size may exceed 30 mm) head-foot, NW Australia. Photo J. Walker. Glyptophysa novaehollandica, dorsal view of head-foot, NW Australia. Photo J. Walker. Distribution of Glyptophysa (Glyptophysa) novaehollandica. data indicate that the species units we are here using appear to be justified, however they are not accompanied by clear-cut morphological characters that allow separation based on shell characters alone. As the species units appear to be overall concordant with state boundaries, we have used these boundaries to aid delimiting species. This situation is not ideal, and can only be resolved by additional molecular and morphological studies involving dense sampling. Diagnostic features The taxonomy of Glyptophysa is very poorly understood. This is one of several species of relatively smooth shelled Glyptophysa that are variable in shape and in periostracal development (periostracal hairs and spirals can be present), even within a single population. A large number of species-group names are available and it is quite possible that more species occur in Australia. At present we are recognising only three, in addition to G. aliciae. This species is one of three that we are somewhat tentatively recognising (see statement under Notes) that were previsously referred to as Glyptophysa gibbosa (now treated as a synomym of G. novaehollandica). These taxa are in need of revision, as the species concepts we have used have not been rigorously tested. -
The Cephalic Sensory Organs of Acteon Tornatilis (Linnaeus, 1758) (Gastropoda Opisthobranchia) – Cellular Innervation Patterns As a Tool for Homologisation*
Bonner zoologische Beiträge Band 55 (2006) Heft 3/4 Seiten 311–318 Bonn, November 2007 The cephalic sensory organs of Acteon tornatilis (Linnaeus, 1758) (Gastropoda Opisthobranchia) – cellular innervation patterns as a tool for homologisation* Sid STAUBACH & Annette KLUSSMANN-KOLB1) 1)Institute for Ecology, Evolution and Diversity – Phylogeny and Systematics, J. W. Goethe-University, Frankfurt am Main, Germany *Paper presented to the 2nd International Workshop on Opisthobranchia, ZFMK, Bonn, Germany, September 20th to 22nd, 2006 Abstract. Gastropoda are guided by several sensory organs in the head region, referred to as cephalic sensory organs (CSOs). This study investigates the CSO structure in the opisthobranch, Acteon tornatilis whereby the innervation pat- terns of these organs are described using macroscopic preparations and axonal tracing techniques. A bipartite cephalic shield and a lateral groove along the ventral side of the cephalic shield was found in A. tornatilis. Four cerebral nerves can be described innervating different CSOs: N1: lip, N2: anterior cephalic shield and lateral groove, N3 and Nclc: posterior cephalic shield. Cellular innervation patterns of the cerebral nerves show characteristic and con- stant cell clusters in the CNS for each nerve. We compare these innervation patterns of A. tornatilis with those described earlier for Haminoea hydatis (STAUBACH et al. in press). Previously established homologisation criteria are used in order to homologise cerebral nerves as well as the organs innervated by these nerves. Evolutionary implications of this homologisation are discussed. Keywords. Haminoea hydatis, Cephalaspidea, axonal tracing, homology, innervation patterns, lip organ, Hancock´s organ. 1. INTRODUCTION Gastropoda are guided by several organs in the head re- phylogenetic position of Acteonoidea within Opistho- gion which are assumed to have primarily chemo- and branchia unsettled. -
Bei Einer Verbreiteten Landschnecke, Cochlicopa Lubrica (O .F
©Bayerische Akademie für Naturschutz und Landschaftspflege (ANL) Laufener Seminarbeiträge 2/98, 39-43 Bayer. Akad. Natursch.Landschaftspfl. - Laufen/Salzach 1998 Bei einer verbreiteten Landschnecke, Cochlicopa lubrica (o .f. M ü l l e r ), wird die Frequenz von molekularen Phänotypen durch Selbstbefruchtung und habitatspezifische Selektion beeinflußt Georg ARMBRUSTER 1. Einleitung 1) Ist der Evolutionsfaktor „Selektion“ an der loka len Verteilung der genetischen Typen beteiligt und Auf der Populationsebene wird das genetische Po welche Schlußfolgerungen lassen sich hieraus be tential einer Art durch mehrere Faktoren beein züglich der genetischen Substrukturierung der Po flußt, vor allem durch pulationen ziehen? 1) die Mutationsrate und die Selektion, 2) zufällige Phänomene wie Drift und ‘bott 2) Wie kann die genetische Vielfalt von selbstbe lenecks’, fruchtenden Landschneckenarten interpretiert wer 3) die geographisch-räumliche Verteilung moleku den? larer Varianten, 4) die effektive Populationsgröße, 5) die Gameten-Austauschrate zwischen Popula 2. Material & Methoden tionen (Genfluß) und 6) die Inzucht bzw. Selbstbefruchtungsrate. 795 Individuen aus 29 mitteleuropäischen Popu lationen wurden auf den AAT 1 Polymorphismus Diese Faktoren sind oft miteinander verknüpft getestet (0 = 27 Individuen/Population). Dabei (FUTUYMA, 1990; JARNE, 1995; KIMURA, wurden zwei Allelvarianten gefunden: Aat 1 1983; NEI, 1987; SPIESS, 1977). Bei der Erfor „20“ und Aat 1 „80“ Nur zwei Individuen zeig schung der genetischen Diversität und bei Arten ten ein heterozygotes Bandenmuster mit schutzkonzepten spielt eine Interpretation dieser „20“/„80“. Alle übrigen wiesen ein homozygotes Evolutionsfaktoren eine große Rolle (BLAB et al., Muster auf („20“/„20“ bzw. „80“/„80“). Die sehr 1995). geringe Anzahl von Heterozygoten kann mit der extrem hohen Selbstbefruchtungsrate erklärt Vorrangiges Ziel des Artenschutzes ist der „Erhalt werden.