Notes on the Carboniferous Cephalopoda
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Представители Семейства Bochianitidae (Ammonoidea) Из Нижнего Мела Горного Крыма © 2008 Г
ПАЛЕОНТОЛОГИЧЕСКИЙ ЖУРНАЛ, 2008, № 5, с. 18-26 УДК 564.5:551.76(477.9) ПРЕДСТАВИТЕЛИ СЕМЕЙСТВА BOCHIANITIDAE (AMMONOIDEA) ИЗ НИЖНЕГО МЕЛА ГОРНОГО КРЫМА © 2008 г. В. В. Аркадьев Санкт-Петербургский государственный университет e-mail: [email protected] Поступила в редакцию 10.04.2007 г. Принята к печати 21.06.2007 г. Приведены результаты ревизии гетероморфньгх аммонитов семейства Bochianitidae из нижнего ме ла Горного Крыма. Автором подтверждена валидность рода Janenschites, выделенного из рода Bo- chianites. Из берриаса Горного Крыма описаны виды Bochianites neocomiensis (d'Orbigny), В. goubech- ensis Mandov, В. levis sp. nov. и В. crymensis sp. nov., из нижнего баррема - виды Janenschites oosteri (Sarasin et Schondelmayer) и J. incisus sp. nov. Бохианиты, появившись в начале берриаса в южных обла стях (Африка, Крым), в валанжине и готериве распространились в северные районы Западной Европы. Гетероморфные аммониты рода Bochianites тарктиды (Kelly, 1995; Lomas, 1999) и Новой Гви¬ редко встречаются в нижнемеловых отложениях неи (Benson, 1923). Горного Крыма. До настоящего времени из этого В последнее время вид В. cf. neocomiensis най региона было описано лишь два вида - Bochianites ден в пограничных отложениях валанжина - готе- oosteri и В. neocomiensis (Каракаш, 1907). Между рива Большого Кавказа (Захаров и др., 2006). тем, представители этого рода занимают значи¬ Крымские бохианиты после Н.И. Каракаша тельное место в нижнемеловых (в частности (1907) никем не изучались. Этот исследователь верхневаланжинских) аммонитовых комплексах виды B. neocomiensis и В. oosteri определил и опи¬ западной части Тетической области (Сесса, 1998; сал из красных известняков разреза на р. Кача в Lukeneder, 2005). Географическое распростране¬ Горном Крыму. Е.Ю. Барабошкин (1997) данный ние рода Bochianites чрезвычайно широкое. -
Common Name: Chiton Class: Polyplacophora
Common Name: Chiton Class: Polyplacophora Scrapes algae off rock with radula 8 Overlapping Plates Phylum? Mollusca Class? Gastropoda Common name? Brown sea hare Class? Scaphopoda Common name? Tooth shell or tusk shell Mud Tentacle Foot Class? Gastropoda Common name? Limpet Phylum? Mollusca Class? Bivalvia Class? Gastropoda Common name? Brown sea hare Phylum? Mollusca Class? Gastropoda Common name? Nudibranch Class? Cephalopoda Cuttlefish Octopus Squid Nautilus Phylum? Mollusca Class? Gastropoda Most Bivalves are Filter Feeders A B E D C • A: Mantle • B: Gill • C: Mantle • D: Foot • E: Posterior adductor muscle I.D. Green: Foot I.D. Red Gills Three Body Regions 1. Head – Foot 2. Visceral Mass 3. Mantle A B C D • A: Radula • B: Mantle • C: Mouth • D: Foot What are these? Snail Radulas Dorsal HingeA Growth line UmboB (Anterior) Ventral ByssalC threads Mussel – View of Outer Shell • A: Hinge • B: Umbo • C: Byssal threads Internal Anatomy of the Bay Mussel A B C D • A: Labial palps • B: Mantle • C: Foot • D: Byssal threads NacreousB layer Posterior adductorC PeriostracumA muscle SiphonD Mantle Byssal threads E Internal Anatomy of the Bay Mussel • A: Periostracum • B: Nacreous layer • C: Posterior adductor muscle • D: Siphon • E: Mantle Byssal gland Mantle Gill Foot Labial palp Mantle Byssal threads Gill Byssal gland Mantle Foot Incurrent siphon Byssal Labial palp threads C D B A E • A: Foot • B: Gills • C: Posterior adductor muscle • D: Excurrent siphon • E: Incurrent siphon Heart G F H E D A B C • A: Foot • B: Gills • C: Mantle • D: Excurrent siphon • E: Incurrent siphon • F: Posterior adductor muscle • G: Labial palps • H: Anterior adductor muscle Siphon or 1. -
Nautiloid Shell Morphology
MEMOIR 13 Nautiloid Shell Morphology By ROUSSEAU H. FLOWER STATEBUREAUOFMINESANDMINERALRESOURCES NEWMEXICOINSTITUTEOFMININGANDTECHNOLOGY CAMPUSSTATION SOCORRO, NEWMEXICO MEMOIR 13 Nautiloid Shell Morphology By ROUSSEAU H. FLOIVER 1964 STATEBUREAUOFMINESANDMINERALRESOURCES NEWMEXICOINSTITUTEOFMININGANDTECHNOLOGY CAMPUSSTATION SOCORRO, NEWMEXICO NEW MEXICO INSTITUTE OF MINING & TECHNOLOGY E. J. Workman, President STATE BUREAU OF MINES AND MINERAL RESOURCES Alvin J. Thompson, Director THE REGENTS MEMBERS EXOFFICIO THEHONORABLEJACKM.CAMPBELL ................................ Governor of New Mexico LEONARDDELAY() ................................................... Superintendent of Public Instruction APPOINTEDMEMBERS WILLIAM G. ABBOTT ................................ ................................ ............................... Hobbs EUGENE L. COULSON, M.D ................................................................. Socorro THOMASM.CRAMER ................................ ................................ ................... Carlsbad EVA M. LARRAZOLO (Mrs. Paul F.) ................................................. Albuquerque RICHARDM.ZIMMERLY ................................ ................................ ....... Socorro Published February 1 o, 1964 For Sale by the New Mexico Bureau of Mines & Mineral Resources Campus Station, Socorro, N. Mex.—Price $2.50 Contents Page ABSTRACT ....................................................................................................................................................... 1 INTRODUCTION -
A Late Oligocene Or Earliest Miocene Molluscan Fauna from Sitkinak Island, Alaska
A Late Oligocene or Earliest Miocene Molluscan Fauna From Sitkinak Island, Alaska By RICHARD C. ALLISON and LOUIE MARINCOVICH, JR. GEOLOGICAL SURVEY PROFESSIONAL PAPER 1233 Describes the late Oligocene or earliest Miocene molluscan fauna from the Narrow Cape Formation on Sitkinak Island, noting the mixture of Asiatic, North American, and endemic high-latitude North Pacific taxa. UNITED STATES GOVERNMENT PRINTING OFFICE, WASHINGTON : 1981 UNITED STATES DEPARTMENT OF THE INTERIOR JAMES G. WATT, &cretary GEOLOGICAL SURVEY Dallas L. Peck, Director Library of Congress Catal ogi ng in Pub1 ication Data A1 1i son, Richard C., 1935- A late Oligocene or earliest Miocene molluscan fauna from Sitki nak Is1and, A1 aska. ( Geological Survey Professional Paper ; 1233) Bibl iography: p. 9-10. Supt. of Doc. no.: I 19.16:1233 1. Moll usks, Fossil --A1 aska--Si tkinak I sl and. 2. Pal eontol ogy--01 igocene . 3. Pal eontol ogy--Mi ocene . I. Marincovich, Louie. 11. Title. 111. Series. QE801. A44 564' .09798' 4 81-607925 AACR2 For sale by the Superintendent of Documents, U.S. Government Printing Office Washington, D.C. 20402 CONTENTS Introduction Faunal composition Age and correlation .................................................................................................................................. Relation to the type Narrow Cape Formation of Kodiak Island Paleoecology ................................................................................................................................................ Water depth Water temperature -
Zwei Miocaene Arten Von Aturia (Nautilaceae)
Zwei miocaene Arten von Aturia (Nautilaceae) Autor(en): Jung, Peter Objekttyp: Article Zeitschrift: Eclogae Geologicae Helvetiae Band (Jahr): 59 (1966) Heft 1 PDF erstellt am: 29.09.2021 Persistenter Link: http://doi.org/10.5169/seals-163385 Nutzungsbedingungen Die ETH-Bibliothek ist Anbieterin der digitalisierten Zeitschriften. Sie besitzt keine Urheberrechte an den Inhalten der Zeitschriften. Die Rechte liegen in der Regel bei den Herausgebern. Die auf der Plattform e-periodica veröffentlichten Dokumente stehen für nicht-kommerzielle Zwecke in Lehre und Forschung sowie für die private Nutzung frei zur Verfügung. Einzelne Dateien oder Ausdrucke aus diesem Angebot können zusammen mit diesen Nutzungsbedingungen und den korrekten Herkunftsbezeichnungen weitergegeben werden. Das Veröffentlichen von Bildern in Print- und Online-Publikationen ist nur mit vorheriger Genehmigung der Rechteinhaber erlaubt. Die systematische Speicherung von Teilen des elektronischen Angebots auf anderen Servern bedarf ebenfalls des schriftlichen Einverständnisses der Rechteinhaber. Haftungsausschluss Alle Angaben erfolgen ohne Gewähr für Vollständigkeit oder Richtigkeit. Es wird keine Haftung übernommen für Schäden durch die Verwendung von Informationen aus diesem Online-Angebot oder durch das Fehlen von Informationen. Dies gilt auch für Inhalte Dritter, die über dieses Angebot zugänglich sind. Ein Dienst der ETH-Bibliothek ETH Zürich, Rämistrasse 101, 8092 Zürich, Schweiz, www.library.ethz.ch http://www.e-periodica.ch Zwei miocaene Arten von Atavia (Nautilaceae) von Peter Jung (Basel)1) Mit 1 Textfigur und 2 Tafeln ABSTRACT .A neotype of Aturia aturi (Basterot) is designated and figured. Several Miocene species of Aturia from Northern South America, Japan and Australia are believed to be synonyms either of the European A. aturi or the Middle .American A. -
Systematics in Palaeontology
Systematics in palaeontology THOMAS NEVILLE GEORGE PRESIDENT'S ANNIVERSARY ADDRESS 1969 CONTENTS Fossils in neontological categories I98 (A) Purpose and method x98 (B) Linnaean taxa . x99 (e) The biospecies . 202 (D) Morphology and evolution 205 The systematics of the lineage 205 (A) Bioserial change 205 (B) The palaeodeme in phyletic series 209 (e) Palaeodemes as facies-controlled phena 2xi Phyletic series . 2~6 (A) Rates of bioserial change 2~6 (B) Character mosaics 218 (c) Differential characters 222 Phylogenetics and systematics 224 (A) Clade and grade 224 (a) Phylogenes and cladogenes 228 (e) Phylogenetic reconstruction 23 I (D) Species and genus 235 (~) The taxonomic hierarchy 238 5 Adansonian methods 240 6 References 243 SUMMARY A 'natural' taxonomic system, inherent in evolutionary change, pulses of biased selection organisms that themselves demonstrate their pressure in expanded and restricted palaeo- 'affinity', is to be recognized perhaps only in demes, and permutations of character-expres- the biospecies. The concept of the biospecies as sion in the evolutionary plexus impose a need a comprehensive taxon is, however, only for a palaeontologically-orientated systematics notional amongst the vast majority of living under which (in evolutionary descent) could organisms, and it is not directly applicable to be subsumed the taxa of the neontological fossils. 'Natural' systems of Linnaean kind rest moment. on assumptions made a priori and are imposed Environmentally controlled morphs, bio- by the systematist. The graded time-sequence facies variants, migrating variation fields, and of the lineage and the clade introduces factors typological segregants are sources of ambiguity into a systematics that cannot well be accommo- in a distinction between phenetic and genetic dated under pre-Darwinian assumptions or be fossil grades. -
Paleontology and Stratigraphy of Eocene Rocks at Pulali Point, Jefferson County, Eastern Olympic Peninsula, Washington
PALEONTOLOGY AND STRATIGRAPHY OF EOCENE ROCKS AT PULALI POINT, JEFFERSON COUNTY, EASTERN OLYMPIC PENINSULA, WASHINGTON by RICHARD L. SQUIRES, JAMES L. GOEDERT, and KEITH L. KALER WASHINGTON DIVISION OF GEOLOGY AND EARTH RESOURCES REPORT OF INVESTIGATIONS 31 1992 ., WASHINGTON STATE DEPARTMENT OF Natural Resources Brian Boyle • Commhstoner of Public Lands An Steo_r0$ - Superv1sor Division ol Geology and Earth Resources Raymond Lcmnanls. State Geologlsl PALEONTOLOGY AND STRATIGRAPHY OF EOCENE ROCKS AT PULALI POINT, JEFFERSON COUNTY, EASTERN OLYMPIC PENINSULA, WASHINGTON by RICHARD L. SQUIRES, JAMES L. GOEDERT, AND KEITH L. KALER WASHINGTON DIVISION OF GEOLOGY AND EARTH RESOURCES REPORT OF INVESTIGATIONS 31 1992 W>.SHING'TON STAT1r OEPARTMDIT or Natural Resources 8ncll) Bov,. · COmmmioner ot Pu!xk: tancb M $i.atni; S\lp$1'WOJ' DtY!llcn 01 Gtology ahCS £artti ~ Raymond l.mlMn.:I ~Geologist Cover: From left, ?Falsifusus marysvillensis; Pachycrommium clarki; large bivalve, Veneri cardia hornii s.s.; Delectopecten cf. D. vancouverensis sanjuanensis; Turritella uvasana hendoni. These specimens are shown at 150 percent of the dimensions on Plates 1 and 3. Use of trade, product, or firm names in this report is for descriptive purposes only and does not consitute endorsement by the Washington Division of Geology and Earth Resources. This report is available from: Publications Washington Department of Natural Resources Division of Geology and Earth Resources P.O. Box 47007 Olympia, WA 98504-7007 Price $ 1.85 Tax (Stale residenl.t only) .15 Total $ 2.00 Mail orders must be prepaid; please add $1.00 to each order for postage and handling. Make checks payable to the Department of Natural Resources. -
Octopus Insularis</Italic> As a New Marine Model for Evolutionary
© 2019. Published by The Company of Biologists Ltd | Biology Open (2019) 8, bio046086. doi:10.1242/bio.046086 RESEARCH ARTICLE Octopus insularis as a new marine model for evolutionary developmental biology Ernesto Maldonado1,*, Emma Rangel-Huerta1,2, Roberto González-Gómez3,4, Gabriel Fajardo-Alvarado3,4 and Piedad S. Morillo-Velarde4,5,* ABSTRACT of aquatic animal eggs and embryos guarantees the observation of Octopuses are intriguing organisms that, together with squids and every developmental stage using microscopy and allows detailed cuttlefishes, form the extant coleoid cephalopods. This group includes experimental analysis from the first cell division through to the many species that can potentially be used as models in the fields of formation of embryonic germ layers and organogenesis (Boletzky biomedicine, developmental biology, evolution, neuroscience and et al., 2006). Finally, small embryos allow reasonable sample sizes even for robotics research. The purpose of this work is to first to be tested together using multi-well plates to provide multiple present a simple method for maintaining Octopus insularis embryos experimental replicates at the same time, making them cost- under a laboratory setup. Second, we show that these embryos are effective animal models (Hill et al., 2005). suitable for detailed analyses of specific traits that appear during Coleoid cephalopods (octopus, squid and cuttlefish) exhibit the developmental stages, including the eyes, hearts, arms, suckers, largest nervous systems found among invertebrates (Young, 1971) chromatophores and Kölliker’s organs. Similar complex traits between and a sophisticated visual system controlling body color changes for cephalopods and vertebrates such as the visual, cardiovascular, communication, camouflage and mimicry (Hanlon et al., 2011; neural and pigmentation systems are generally considered to be a Robin et al., 2014). -
New Findings of Eocene Nautiloids from North Western Desert, Egypt
Journal of African Earth Sciences 159 (2019) 103580 Contents lists available at ScienceDirect Journal of African Earth Sciences journal homepage: www.elsevier.com/locate/jafrearsci New findings of eocene nautiloids from north Western Desert, Egypt T ∗ Mohamed F. Aly , Sherief A. Sadek Geology Department, Faculty of Science, Cairo University, Giza, Egypt ARTICLE INFO ABSTRACT Keywords: The Tertiary marine succession of the north Western Desert, Egypt, is rich in vertebrates, molluscs and other Nautiloids invertebrates, but nautiloids are less abundant. Five nautiloid species, are reported herein: Eutrephoceras sp., Sharks Aturoidea parkinsoni, Aturia aturi, Aturia cf. alabamensis and, Aturia cf. gujaratensis. They are collected and Tertiary identified from the lowermost part of Gebel Minqar Tebaghbagh area. The studied section is located 90 km to the Siwa oasis east of Siwa Oasis at the south of western side of the Qattara Depression. The recovered specimens are mostly Western desert crushed, partially fragmented internal molds, mostly showing badly preserved suture lines and dorsal to sub- Egypt central siphuncles. The nautiloids occur in abundance in random orientation through a clastic-dominated suc- cession. They are mostly represented by middle-aged and mature specimens. Recently, the lower part of Gebel Tabaghbagh was assigned to Late Eocene. 1. Introduction southwest of Aswan city, south Western Desert, Hewaidy and Azzab, 2002 described and identified five nautiloid species of the Paleocene The north western Desert of Egypt is almost a plain area. The only age from the Kurkur Formation. Those are Deltoidonautilus polymorphus characteristic features are the Marmarica Limestone plateau and the Hewaidy and Azzab, Deltoidonautilus sp. 1, Deltoidonautilus sp. -
Smithsonian Miscellaneous Collections
SMITHSONIAN MISCELLANEOUS COLLECTIOXS. 227 AEEANGEMENT FAMILIES OF MOLLUSKS. PREPARED FOR THE SMITHSONIAN INSTITUTION BY THEODORE GILL, M. D., Ph.D. WASHINGTON: PUBLISHED BY THE SMITHSONIAN INSTITUTION, FEBRUARY, 1871. ^^1 I ADVERTISEMENT. The following list has been prepared by Dr. Theodore Gill, at the request of the Smithsonian Institution, for the purpose of facilitating the arrangement and classification of the Mollusks and Shells of the National Museum ; and as frequent applica- tions for such a list have been received by the Institution, it has been thought advisable to publish it for more extended use. JOSEPH HENRY, Secretary S. I. Smithsonian Institution, Washington, January, 1871 ACCEPTED FOR PUBLICATION, FEBRUARY 28, 1870. (iii ) CONTENTS. VI PAGE Order 17. Monomyaria . 21 " 18. Rudista , 22 Sub-Branch Molluscoidea . 23 Class Tunicata , 23 Order 19. Saccobranchia . 23 " 20. Dactjlobranchia , 24 " 21. Taeniobranchia , 24 " 22. Larvalia , 24 Class Braehiopoda . 25 Order 23. Arthropomata , 25 " . 24. Lyopomata , 26 Class Polyzoa .... 27 Order 25. Phylactolsemata . 27 " 26. Gymnolseraata . 27 " 27. Rhabdopleurse 30 III. List op Authors referred to 31 IV. Index 45 OTRODUCTIO^. OBJECTS. The want of a complete and consistent list of the principal subdivisions of the mollusks having been experienced for some time, and such a list being at length imperatively needed for the arrangement of the collections of the Smithsonian Institution, the present arrangement has been compiled for that purpose. It must be considered simply as a provisional list, embracing the results of the most recent and approved researches into the systematic relations and anatomy of those animals, but from which innova- tions and peculiar views, affecting materially the classification, have been excluded. -
1. in Tro Duc Tion
Cephalopods of the World 1 1. INTRO DUC TION Patrizia Jereb, Clyde F.E. Roper and Michael Vecchione he increasing exploitation of finfish resources, and the commercial status. For example, this work should be useful Tdepletion of a number of major fish stocks that formerly for the ever-expanding search for development and supported industrial-scale fisheries, forces continued utilization of ‘natural products’, pharmaceuticals, etc. attention to the once-called ‘unconventional marine resources’, which include numerous species of cephalopods. The catalogue is based primarily on information available in Cephalopod catches have increased steadily in the last 40 published literature. However, yet-to-be-published reports years, from about 1 million metric tonnes in 1970 to more than and working documents also have been used when 4 million metric tonnes in 2007 (FAO, 2009). This increase appropriate, especially from geographical areas where a confirms a potential development of the fishery predicted by large body of published information and data are lacking. G.L. Voss in 1973, in his first general review of the world’s We are particularly grateful to colleagues worldwide who cephalopod resources prepared for FAO. The rapid have supplied us with fisheries information, as well as expansion of cephalopod fisheries in the decade or so bibliographies of local cephalopod literature. following the publication of Voss’s review, meant that a more comprehensive and updated compilation was required, The fishery data reported herein are taken from the FAO particularly for cephalopod fishery biologists, zoologists and official database, now available on the Worldwide web: students. The FAO Species Catalogue, ‘Cephalopods of the FISHSTAT Plus 2009. -
Lab 5: Phylum Mollusca
Biology 18 Spring, 2008 Lab 5: Phylum Mollusca Objectives: Understand the taxonomic relationships and major features of mollusks Learn the external and internal anatomy of the clam and squid Understand the major advantages and limitations of the exoskeletons of mollusks in relation to the hydrostatic skeletons of worms and the endoskeletons of vertebrates, which you will examine later in the semester Textbook Reading: pp. 700-702, 1016, 1020 & 1021 (Figure 47.22), 943-944, 978-979, 1046 Introduction The phylum Mollusca consists of over 100,000 marine, freshwater, and terrestrial species. Most are familiar to you as food sources: oysters, clams, scallops, and yes, snails, squid and octopods. Some also serve as intermediate hosts for parasitic trematodes, and others (e.g., snails) can be major agricultural pests. Mollusks have many features in common with annelids and arthropods, such as bilateral symmetry, triploblasty, ventral nerve cords, and a coelom. Unlike annelids, mollusks (with one major exception) do not possess a closed circulatory system, but rather have an open circulatory system consisting of a heart and a few vessels that pump blood into coelomic cavities and sinuses (collectively termed the hemocoel). Other distinguishing features of mollusks are: z A large, muscular foot variously modified for locomotion, digging, attachment, and prey capture. z A mantle, a highly modified epidermis that covers and protects the soft body. In most species, the mantle also secretes a shell of calcium carbonate. z A visceral mass housing the internal organs. z A mantle cavity, the space between the mantle and viscera. Gills, when present, are suspended within this cavity.