The Birth of Malacology. When and How?
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Study Guide Entomology & Nematology Department
STUDY GUIDE ENTOMOLOGY & NEMATOLOGY DEPARTMENT DPM COMPREHENSIVE EXAMINATIONS The Entomology & Nematology Comprehensive Examinations consist of 3 sections: pest identification (30%), pest biology and management (40%), and core concepts and synthesis (30%). These examinations are limited to information about invertebrate animal pests, principally insects and nematodes, but also plant feeding mites and terrestrial molluscs. A. Pest identification Students will be presented with insects, mites, molluscs, and nematodes that they must identify. Some may be recognizable by sight, but others may require keys for identification. Students will be provided with identification aids (keys), where necessary, and be expected to use them to identify the subjects accurately. The unknowns will be selected from the list of important insect, mite, mollusc, and nematode pests (Table 1) though we will emphasize those with a single or double asterisk [* or **]), as these normally are the more important pests. Included in this list are some that pose a threat but are not currently found in Florida. B. Pest biology and management Students will answer 8-10 questions on insect, mite, mollusc, and nematode pest biology (sampling, distribution, life cycle, damage) and management. The animals for which students are responsible to know biology and management are listed in Table 1 (preceded by double asterisk [**]). C. Core Concepts and Synthesis Section: Students will answer 3 or 4 questions that cover core areas of Entomology/Nematology and demonstrate knowledge of core areas, but also analysis and problem solving. Suggested reference/reading material is listed in Table 2. You might want to read through these in preparation for the Comprehensive Examinations. -
Brains of Primitive Chordates 439
Brains of Primitive Chordates 439 Brains of Primitive Chordates J C Glover, University of Oslo, Oslo, Norway although providing a more direct link to the evolu- B Fritzsch, Creighton University, Omaha, NE, USA tionary clock, is nevertheless hampered by differing ã 2009 Elsevier Ltd. All rights reserved. rates of evolution, both among species and among genes, and a still largely deficient fossil record. Until recently, it was widely accepted, both on morpholog- ical and molecular grounds, that cephalochordates Introduction and craniates were sister taxons, with urochordates Craniates (which include the sister taxa vertebrata being more distant craniate relatives and with hemi- and hyperotreti, or hagfishes) represent the most chordates being more closely related to echinoderms complex organisms in the chordate phylum, particu- (Figure 1(a)). The molecular data only weakly sup- larly with respect to the organization and function of ported a coherent chordate taxon, however, indicat- the central nervous system. How brain complexity ing that apparent morphological similarities among has arisen during evolution is one of the most chordates are imposed on deep divisions among the fascinating questions facing modern science, and it extant deuterostome taxa. Recent analysis of a sub- speaks directly to the more philosophical question stantially larger number of genes has reversed the of what makes us human. Considerable interest has positions of cephalochordates and urochordates, pro- therefore been directed toward understanding the moting the latter to the most closely related craniate genetic and developmental underpinnings of nervous relatives (Figure 1(b)). system organization in our more ‘primitive’ chordate relatives, in the search for the origins of the vertebrate Comparative Appearance of Brains, brain in a common chordate ancestor. -
Linnaeus at Home
NATURE-BASED ACTIVITIES FOR PARENTS LINNAEUS 1 AT HOME A GuiDE TO EXPLORING NATURE WITH CHILDREN Acknowledgements Written by Joe Burton Inspired by Carl Linnaeus With thanks to editors and reviewers: LINNAEUS Lyn Baber, Melissa Balzano, Jane Banham, Sarah Black, Isabelle Charmantier, Mark Chase, Maarten Christenhusz, Alex Davey, Gareth Dauley, AT HOME Zia Forrai, Jon Hale, Simon Hiscock, Alice ter Meulen, Lynn Parker, Elizabeth Rollinson, James Rosindell, Daryl Stenvoll-Wells, Ross Ziegelmeier Share your explorations @LinneanLearning #LinnaeusAtHome Facing page: Carl Linnaeus paper doll, illustrated in 1953. © Linnean Society of London 2019 All rights reserved. No part of this publication may be reproduced, stored in a retrival system or trasmitted in any form or by any means without the prior consent of the copyright owner. www.linnean.org/learning “If you do not know Introduction the names of things, the knowledge of them is Who was Carl Linnaeus? Contents Pitfall traps 5 lost too” Carl Linnaeus was one of the most influential scientists in the world, - Carl Linnaeus A bust of ‘The Young Linnaeus’ by but you might not know a lot about him. Thanks to Linnaeus, we Bug hunting 9 Anthony Smith (2007). have a naming system for all species so that we can understand how different species are related and can start to learn about the origins Plant hunting 13 of life on Earth. Pond dipping 17 As a young man, Linnaeus would study the animals, plants, Bird feeders 21 minerals and habitats around him. By watching the natural world, he began to understand that all living things are adapted to their Squirrel feeders 25 environments and that they can be grouped together by their characteristics (like animals with backbones, or plants that produce Friendly spaces 29 spores). -
Travels on the Backbone Crest (A Group of Embryonic Cells)
BOOKS & ARTS COMMENT EVOLUTION non-deuterostomes. In the most effective section, he strips vertebrates down to their parts, such as the nerve cord, notochord (fore- runner of the vertebral column) and neural Travels on the backbone crest (a group of embryonic cells). He even delves into the largely ignored gut and viscera. Chris Lowe lauds a study of vertebrate origins that Gee discusses how data from living and brings us up to date with a shifting field. fossilized hemichordates and echinoderms have facilitated the search for the origins of the defining chordate anatomies. He ome of the great remaining mysteries groups belong in the highlights how palaeontological, develop- in zoology concern origins — of multi- deuterostome lineage mental and genomic data now all support cellularity, complex nervous systems, of animals alongside the idea that the common ancestor of chor- Slife cycles and sex, for example. The chordates — have dates, hemichordates and echinoderms had evolutionary origin of vertebrates is among largely been resolved. pharyngeal gill slits for filter feeding. That the most intractable of these, despite more Others are as intrac- gives us a glimpse of the early chordate ances- than a century of work spanning a range of table as ever, including tor, which lived around 600 million years ago. disciplines and animal groups. where to place key fos- Other features, such as a complex brain, prob- In Across the Bridge, Henry Gee reviews sil groups such as the ably emerged much later. Having established the most recent research in this area. Gee curious vetulicolians, Across the Bridge: a hazy picture of the earliest chordates, Gee (the senior editor responsible for palae- which lived during Understanding focuses on building vertebrates and their the Origin of the ontology and evolutionary development the Cambrian period, Vertebrates defining features from the basic chordate at Nature) synthesizes contributions from some 541 million to HENRY GEE body plan, for example through spectacular anatomy, developmental biology, genomics, 485 million years ago. -
THE NAUTILUS (Quarterly)
americanmalacologists, inc. PUBLISHERS OF DISTINCTIVE BOOKS ON MOLLUSKS THE NAUTILUS (Quarterly) MONOGRAPHS OF MARINE MOLLUSCA STANDARD CATALOG OF SHELLS INDEXES TO THE NAUTILUS {Geographical, vols 1-90; Scientific Names, vols 61-90) REGISTER OF AMERICAN MALACOLOGISTS JANUARY 30, 1984 THE NAUTILUS ISSN 0028-1344 Vol. 98 No. 1 A quarterly devoted to malacology and the interests of conchologists Founded 1889 by Henry A. Pilsbry. Continued by H. Burrington Baker. Editor-in-Chief: R. Tucker Abbott EDITORIAL COMMITTEE CONSULTING EDITORS Dr. William J. Clench Dr. Donald R. Moore Curator Emeritus Division of Marine Geology Museum of Comparative Zoology School of Marine and Atmospheric Science Cambridge, MA 02138 10 Rickenbacker Causeway Miami, FL 33149 Dr. William K. Emerson Department of Living Invertebrates Dr. Joseph Rosewater The American Museum of Natural History Division of Mollusks New York, NY 10024 U.S. National Museum Washington, D.C. 20560 Dr. M. G. Harasewych 363 Crescendo Way Dr. G. Alan Solem Silver Spring, MD 20901 Department of Invertebrates Field Museum of Natural History Dr. Aurele La Rocque Chicago, IL 60605 Department of Geology The Ohio State University Dr. David H. Stansbery Columbus, OH 43210 Museum of Zoology The Ohio State University Dr. James H. McLean Columbus, OH 43210 Los Angeles County Museum of Natural History 900 Exposition Boulevard Dr. Ruth D. Turner Los Angeles, CA 90007 Department of Mollusks Museum of Comparative Zoology Dr. Arthur S. Merrill Cambridge, MA 02138 c/o Department of Mollusks Museum of Comparative Zoology Dr. Gilbert L. Voss Cambridge, MA 02138 Division of Biology School of Marine and Atmospheric Science 10 Rickenbacker Causeway Miami, FL 33149 EDITOR-IN-CHIEF The Nautilus (USPS 374-980) ISSN 0028-1344 Dr. -
Resembling Those of Antigen Receptors Receptor Family with A
Hagfish Leukocytes Express a Paired Receptor Family with a Variable Domain Resembling Those of Antigen Receptors This information is current as Takashi Suzuki, Tadasu Shin-I, Asao Fujiyama, Yuji Kohara of September 29, 2021. and Masanori Kasahara J Immunol 2005; 174:2885-2891; ; doi: 10.4049/jimmunol.174.5.2885 http://www.jimmunol.org/content/174/5/2885 Downloaded from References This article cites 37 articles, 11 of which you can access for free at: http://www.jimmunol.org/content/174/5/2885.full#ref-list-1 http://www.jimmunol.org/ Why The JI? Submit online. • Rapid Reviews! 30 days* from submission to initial decision • No Triage! Every submission reviewed by practicing scientists • Fast Publication! 4 weeks from acceptance to publication by guest on September 29, 2021 *average Subscription Information about subscribing to The Journal of Immunology is online at: http://jimmunol.org/subscription Permissions Submit copyright permission requests at: http://www.aai.org/About/Publications/JI/copyright.html Email Alerts Receive free email-alerts when new articles cite this article. Sign up at: http://jimmunol.org/alerts The Journal of Immunology is published twice each month by The American Association of Immunologists, Inc., 1451 Rockville Pike, Suite 650, Rockville, MD 20852 Copyright © 2005 by The American Association of Immunologists All rights reserved. Print ISSN: 0022-1767 Online ISSN: 1550-6606. The Journal of Immunology Hagfish Leukocytes Express a Paired Receptor Family with a Variable Domain Resembling Those of Antigen Receptors1,2 Takashi Suzuki,* Tadasu Shin-I,§ Asao Fujiyama,†¶ʈ Yuji Kohara,‡§ and Masanori Kasahara3* Jawed vertebrates are equipped with TCR and BCR with the capacity to rearrange their V domains. -
Metabarcoding in the Abyss: Uncovering Deep-Sea Biodiversity Through Environmental
Metabarcoding in the abyss : uncovering deep-sea biodiversity through environmental DNA Miriam Isabelle Brandt To cite this version: Miriam Isabelle Brandt. Metabarcoding in the abyss : uncovering deep-sea biodiversity through environmental DNA. Agricultural sciences. Université Montpellier, 2020. English. NNT : 2020MONTG033. tel-03197842 HAL Id: tel-03197842 https://tel.archives-ouvertes.fr/tel-03197842 Submitted on 14 Apr 2021 HAL is a multi-disciplinary open access L’archive ouverte pluridisciplinaire HAL, est archive for the deposit and dissemination of sci- destinée au dépôt et à la diffusion de documents entific research documents, whether they are pub- scientifiques de niveau recherche, publiés ou non, lished or not. The documents may come from émanant des établissements d’enseignement et de teaching and research institutions in France or recherche français ou étrangers, des laboratoires abroad, or from public or private research centers. publics ou privés. THÈSE POUR OBTENIR LE GRADE DE DOCTEUR DE L’UNIVERSITÉ DE M ONTPELLIER En Sciences de l'Évolution et de la Biodiversité École doctorale GAIA Unité mixte de recherche MARBEC Pourquoi Pas les Abysses ? L’ADN environnemental pour l’étude de la biodiversité des grands fonds marins Metabarcoding in the abyss: uncovering deep - sea biodiversity through environmental DNA Présentée par Miriam Isabelle BRANDT Le 10 juillet 2020 Sous la direction de Sophie ARNAUD-HAOND et Daniela ZEPPILLI Devant le jury composé de Sofie DERYCKE, Senior researcher/Professeur rang A, ILVO, Belgique Rapporteur -
Snotty Hagfish
DOWNLOADABLE EXTRAS Introduction to Science 9 Dissecting an Article: Snotty Hagfish When you threaten a hagfi sh, it squirts a huge amount of snotty goo from hundreds of glands that run along its sides. The goo is in such large quantities it could gag a large predator like a shark. The goo that they secrete can expand to 20 litres when it is combined with water; it is like mixing powdered glue paste up for papier-mâché. This goo is produced as a defence mechanism where they become so slippery that the predator can’t hold on to them. They can also tie themselves into a knot spreading the goo all over the predator, this twisting pretzel movement also removes the goo that is sticking them to themselves so that they can escape. The hagfi sh is mainly prey for birds and mammals, with very few sea creatures daring to eat the slimy snot ball. Scientists think that this could be because the goo is able to block fi sh’s gills which would suffocate them so instead they stay away. Hagfi sh are an eel-like marine fi sh that are found in deep areas of the ocean. Hagfi sh occur in a range of colours including pink, brown, blue, grey and even black or white spotted. They are very simple fi sh and lack a true eye. They have a series of eye spots instead that detect light rather than actually see objects. Hagfi sh use long whiskers around their mouths called barbels to help them sense the things in their environment. -
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,. <tollege lll!leehlr VOL .- II. Haverford, Pa., April 4, 1910 N0.8 WEST FBILA. o: BAVER OUTSIDE PRACTICE BEGUN. i LECTURE NUIIIBER 1. FORD o. HAVERFORD ABROAD. L~sTEa, '96, AXD Htxc nMAXX, '00, lx H1 WAK>I W s F1ksT Aooa~ss Da. H AHRis l. ~ATJU! a SATUau.n ..... H ..: LP wrru CoACIIIXG. ri'AI. KS ON Hts NEWI,\' Dts- MAKKS SLOw Soc c ~Jt GA>t~. " I hnd ruther mukc 11 clcuu cut N>:rrJJ>:a T>:AM Ut• TO "l'hc tcnm which will go to Eng- CO\'ERt:o ]:tsAl.T•:a. I to the ropes thun knock nil the STAXDAIIO. i luild this summer is much better \\' I k ,-._-- .._ f tl home-runs in history !" I I I 1cn us et uy u mcmucr o tc , , . M._ i L'qUippcd for bowlers uru Ills u mulicncc nt his lecture lust 'l'hurs- 1 h_rs rcmurk \\"tcs oncv. "'lie heat Saturday m~dc to ufternoon 1hi g her clu>s of fi_ elder.,_ though · t I f tl 111e, JUst before un insrgmficant ma(lc... tile g c1 1t y mg1 1 w 1crc tc ouru 1c umc with West J>hilu- some".·lmt ·we11kcr 1 1 1 . 111 b11tbng t "'.n , · . f . tl . ll ut t.ch, by 1.1 gentleman not too lllUIHUiCflJ> 1 0 1liS TC<'CII .V l 1ISCO\'• 1 . • dclphill rnthor slow and with most the first teum lllllt went m·er m crc'<l Christian P snlter, J . lh•ndul you11g, of lute Homan urcln.tcc- of the team resting at times 11-196," was the t~nswcr of .J. -
Animal Phylum Poster Porifera
Phylum PORIFERA CNIDARIA PLATYHELMINTHES ANNELIDA MOLLUSCA ECHINODERMATA ARTHROPODA CHORDATA Hexactinellida -- glass (siliceous) Anthozoa -- corals and sea Turbellaria -- free-living or symbiotic Polychaetes -- segmented Gastopods -- snails and slugs Asteroidea -- starfish Trilobitomorpha -- tribolites (extinct) Urochordata -- tunicates Groups sponges anemones flatworms (Dugusia) bristleworms Bivalves -- clams, scallops, mussels Echinoidea -- sea urchins, sand Chelicerata Cephalochordata -- lancelets (organisms studied in detail in Demospongia -- spongin or Hydrazoa -- hydras, some corals Trematoda -- flukes (parasitic) Oligochaetes -- earthworms (Lumbricus) Cephalopods -- squid, octopus, dollars Arachnida -- spiders, scorpions Mixini -- hagfish siliceous sponges Xiphosura -- horseshoe crabs Bio1AL are underlined) Cubozoa -- box jellyfish, sea wasps Cestoda -- tapeworms (parasitic) Hirudinea -- leeches nautilus Holothuroidea -- sea cucumbers Petromyzontida -- lamprey Mandibulata Calcarea -- calcareous sponges Scyphozoa -- jellyfish, sea nettles Monogenea -- parasitic flatworms Polyplacophora -- chitons Ophiuroidea -- brittle stars Chondrichtyes -- sharks, skates Crustacea -- crustaceans (shrimp, crayfish Scleropongiae -- coralline or Crinoidea -- sea lily, feather stars Actinipterygia -- ray-finned fish tropical reef sponges Hexapoda -- insects (cockroach, fruit fly) Sarcopterygia -- lobed-finned fish Myriapoda Amphibia (frog, newt) Chilopoda -- centipedes Diplopoda -- millipedes Reptilia (snake, turtle) Aves (chicken, hummingbird) Mammalia -
ZOOLOGY Exploring the Biodiversity of Colorado and Theworld
CHAPTER 4 — ZOOLOGY Exploring the Biodiversity of Colorado and the World CHAPTER 4 ZOOLOGY Exploring the Biodiversity of Colorado and the World Jeffrey T. Stephenson, Before the Museum Paula E. Cushing, The first collections of specimens that make up what is now the Denver John R. Demboski, and Museum of Nature & Science were actually established well before the Frank-T. Krell founding of the institution in 1900, the selection of a board of trustees, or the construction of a building to house and exhibit the specimens. Edwin Carter (1830–1900) (Fig. 4.1) collected Colorado birds and mammals from the 1860s through the 1890s. Born in New York in 1830, Carter arrived in Colorado in 1859 hoping to make it rich in the goldfields, but he soon became interested in the region’s natural history. He learned hide tanning and, as his prospects for hitting the mother lode faded, he earned his living selling buckskin clothing that he handcrafted. Carter supplemented these earnings by mar- keting foodstuffs and other provisions to the growing population of successful and (mostly) unsuccessful prospectors flooding the region. His interest in nature turned to concern as he observed dwindling numbers of mammals and birds, owing largely to habitat destruction and overhunting. Period photographs of the area’s mining district show a landscape largely denuded of vegetation. By the 1870s, Carter noted that many animal species were becoming scarce. The state’s forests were being devastated, ranches and farms were replacing open prairie, and some species, including the last native bison in Colorado, were on the verge of extirpation or extinction. -
The Species Question in Freshwater Malacology: from Linnaeus to the Present Day
See discussions, stats, and author profiles for this publication at: https://www.researchgate.net/publication/323748481 THE SPECIES QUESTION IN FRESHWATER MALACOLOGY: FROM LINNAEUS TO THE PRESENT DAY Article · March 2018 DOI: 10.12657/folmal.026.005 CITATIONS READS 0 126 1 author: Maxim Vinarski Saint Petersburg State University 134 PUBLICATIONS 664 CITATIONS SEE PROFILE Some of the authors of this publication are also working on these related projects: Biological diversity and taxonomy of freshwater snails of Central Asia View project Origin of freshwater fauna in Iceland: Cryptic glacial refugia or postglacial founder events? View project All content following this page was uploaded by Maxim Vinarski on 14 March 2018. The user has requested enhancement of the downloaded file. Folia Malacol. 26(1): 39–52 https://doi.org/10.12657/folmal.026.005 THE SPECIES QUESTION IN FRESHWATER MALACOLOGY: FROM LINNAEUS TO THE PRESENT DAY1 MAXIM V. VINARSKI Saint-Petersburg State University, Universitetskaya Naberezhnaya, 7/9, 199034 Saint-Petersburg/Omsk State Pedagogical University, 14 Tukhachevskogo Emb., 644099 Omsk, Russian Federation (e-mail: [email protected]) ABSTRACT: The history of the species problem as applied to freshwater molluscs, from the beginning of scientific taxonomy to the present day, is outlined. Three main approaches to delineation of species boundaries (intuitive, conceptual, and operational) are discussed, with remarks on their practical usage in freshwater malacology. The central topic of the article is how malacologists changed their views on the essence of species category and the impact of these changes on the taxonomic practice. The opinions of some prominent and prolific workers in the field (Bourguignat, Kobelt, Hubendick, Starobogatov) are analysed as well as the debates around the theoretical foundations and practical results of the ‘Nouvelle École’ of the 19th century and the ‘comparatory’ systematics of the 20th century.