Invertebrate Zoology (BIO-225)
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Towards a Management Hierarchy (Classification) for the Catalogue of Life
TOWARDS A MANAGEMENT HIERARCHY (CLASSIFICATION) FOR THE CATALOGUE OF LIFE Draft Discussion Document Rationale The Catalogue of Life partnership, comprising Species 2000 and ITIS (Integrated Taxonomic Information System), has the goal of achieving a comprehensive catalogue of all known species on Earth by the year 2011. The actual number of described species (after correction for synonyms) is not presently known but estimates suggest about 1.8 million species. The collaborative teams behind the Catalogue of Life need an agreed standard classification for these 1.8 million species, i.e. a working hierarchy for management purposes. This discussion document is intended to highlight some of the issues that need clarifying in order to achieve this goal beyond what we presently have. Concerning Classification Life’s diversity is classified into a hierarchy of categories. The best-known of these is the Kingdom. When Carl Linnaeus introduced his new “system of nature” in the 1750s ― Systema Naturae per Regna tria naturae, secundum Classes, Ordines, Genera, Species …) ― he recognised three kingdoms, viz Plantae, Animalia, and a third kingdom for minerals that has long since been abandoned. As is evident from the title of his work, he introduced lower-level taxonomic categories, each successively nested in the other, named Class, Order, Genus, and Species. The most useful and innovative aspect of his system (which gave rise to the scientific discipline of Systematics) was the use of the binominal, comprising genus and species, that uniquely identified each species of organism. Linnaeus’s system has proven to be robust for some 250 years. The starting point for botanical names is his Species Plantarum, published in 1753, and that for zoological names is the tenth edition of the Systema Naturae published in 1758. -
Invertebrate ZOOLOGY Crustacea Are Issued in Parts at Irregular Intervals As Material Becomes Available Obtainable from the South African Museum, P.O
DEEP SEA DECAPOD CRUSTACEA FROM WEST OF CAPE POINT, SOUTH AFRICA June 1968 Junie Volume 50 Band Part 12 Dee! iNVERTEBRATE ZOOLOGY Crustacea are issued in parts at irregular intervals as material becomes available Obtainable from the South African Museum, P.O. Box 61, Cape Town (Cash with order, post free) word uitgegee in dele op ongereelde tye na beskikbaarheid van stof Verkrygbaar van die Suid-Afrikaanse Museum, Posbus 61, Kaapstad (Kontant met bestelling, posvry) OUT OF PRINT/UIT DRUK I, 2(1, g, 5, 7-8), g(I-2, 5, t.-p.L), 5(2, 5, 7-9), 6(1, t.-p.i.), 7(1, g), 8, 9(1-2), IO(I-g), II (1-2, 7, t.-p.i.), 21, 24(2), 27, gl (I-g), g8, 44(4)· Price of this part/Prys van hierdie deel RI.75 Trustees of the South African Museum © Trustees van die Suid-Afrikaanse Museum 1968 Printed in South Africa by In Suid-Afrika gedruk deur The Rustica Press, Pty., Ltd. Die Rustica-pers, Edms.,Bpk. Court Road, Wynberg, Cape Courtweg, Wynberg, Kaap DEEP SEA DECAPOD CRUSTACEA FROM WEST OF CAPE POINT, SOUTH AFRICA By B. F. KENSLEY South 4frican Museum, Cape Town PAGF. Introduction 283 List of species and stations 284- Description and notes 286 Summary 321 Acknowledgements 321 References 322 In 1959 the research ship 4fricana II of the Division of Sea Fisheries carried out trawls at twelve stations off the west coast of the Cape Peninsula and off Cape Point, under the supervision of Dr. F. H. Talbot, then of the South Mrican Museum. -
Gfe Full Program 13.02.2019
Joint Meeting of the German and Israeli Societies of Developmental Biology Vienna, February 17-20, 2019 https://gfe2019.univie.ac.at/home/ Organizers Ulrich Technau, Eli Arama Co-Organizers Michael Brand, Fred Berger, Elly Tanaka, David Sprinzak, Peleg Hasson GfE https://www.vbio.de/gfe-entwicklungsbiologie IsSDB http://issdb.org Gesellschaft für Entwicklungsbiologie e.V. Geschäftsstelle: Dr. Thomas Thumberger Centre for Organismal Studies Universität Heidelberg Im Neuenheimer Feld 230 69120 Heidelberg E-mail: [email protected] Contents Sponsors ......................................................................................................................................... 4 General information ..................................................................................................................... 5 Venue .......................................................................................................................................... 5 Getting there................................................................................................................................ 5 From the airport ...................................................................................................................... 6 If you come by long distance train .......................................................................................... 6 Taxi ......................................................................................................................................... 6 If you -
Bodily Complexity: Integrated Multicellular Organizations for Contraction-Based Motility
fphys-10-01268 October 11, 2019 Time: 16:13 # 1 HYPOTHESIS AND THEORY published: 15 October 2019 doi: 10.3389/fphys.2019.01268 Bodily Complexity: Integrated Multicellular Organizations for Contraction-Based Motility Argyris Arnellos1,2* and Fred Keijzer3 1 IAS-Research Centre for Life, Mind & Society, Department of Logic and Philosophy of Science, University of the Basque Country, San Sebastián, Spain, 2 Department of Product and Systems Design Engineering, Complex Systems and Service Design Lab, University of the Aegean, Syros, Greece, 3 Department of Theoretical Philosophy, University of Groningen, Groningen, Netherlands Compared to other forms of multicellularity, the animal case is unique. Animals—barring some exceptions—consist of collections of cells that are connected and integrated to such an extent that these collectives act as unitary, large free-moving entities capable of sensing macroscopic properties and events. This animal configuration Edited by: Matteo Mossio, is so well-known that it is often taken as a natural one that ‘must’ have evolved, UMR8590 Institut d’Histoire et given environmental conditions that make large free-moving units ‘obviously’ adaptive. de Philosophie des Sciences et des Techniques (IHPST), France Here we question the seemingly evolutionary inevitableness of animals and introduce Reviewed by: a thesis of bodily complexity: The multicellular organization characteristic for typical Stuart A. Newman, animals requires the integration of a multitude of intrinsic bodily features between its New York Medical -
ZOOL 4420: Invertebrate Zoology California State University Stanislaus Course Syllabus
ZOOL 4420: Invertebrate Zoology California State University Stanislaus Course Syllabus Instructor: Dr. Ritin Bhaduri Office: 263 Naraghi Hall Phone: (209) 667-3485 Email: [email protected] Office Hours: Monday & Friday 9:00 -11:00 AM, or by appointment. Lectures: MWF 8:00 - 8:50 AM in Rm. N210; Lab: W 9:00 – 11:50 AM in Rm N210 Text: Animal Diversity, 6th ed., (2012) C. P. Hickman, L. S. Roberts, et al. McGraw Hill. Announcements: We will use Moodle as our learning management system. Create a Moodle account (code: zool4420-001) and check for lecture slides, videos, etc. on a regular basis. Introduction: Invertebrates comprise at least 95% of all known animals. From their numbers and diversity alone, it is obvious that invertebrates are incredibly important. They are food for humans and other animals, they cause disease, they pollinate most of the plants we need and use, they affect global climate, some are important with respect to medicine, etc. All people, but especially biologists, need to have a good working knowledge of invertebrates Teaching Philosophy: My teaching philosophy is that I want to share as much knowledge and understanding of the subject with students as possible. To see my students excel and become empowered with the newly acquired knowledge is what I feel teaching is all about. My goal for this course is that all participants learn about and come to appreciate all invertebrate groups. In more detail, this involves learning names and classification, and biology of invertebrates. Course Description: Invertebrate Zoology is a senior-level animal diversity course. It is a 4-unit lecture and laboratory course, with 3 lectures and 1 lab period per week. -
Styles of Reasoning in Early to Mid-Victorian Life Research: Analysis:Synthesis and Palaetiology
Journal of the History of Biology (2006) Ó Springer 2006 DOI 10.1007/s10739-006-0006-4 Styles of Reasoning in Early to Mid-Victorian Life Research: Analysis:Synthesis and Palaetiology JAMES ELWICK Science and Technology Studies Faculties of Arts and Science and Engineering York University 4700 Keele St. M3J 1P3 Toronto, ON Canada E-mail: [email protected] Abstract. To better understand the work of pre-Darwinian British life researchers in their own right, this paper discusses two different styles of reasoning. On the one hand there was analysis:synthesis, where an organism was disintegrated into its constituent parts and then reintegrated into a whole; on the other hand there was palaetiology, the historicist depiction of the progressive specialization of an organism. This paper shows how each style allowed for development, but showed it as moving in opposite directions. In analysis:synthesis, development proceeded centripetally, through the fusion of parts. Meanwhile in palaetiology, development moved centrifugally, through the ramifying specialization of an initially simple substance. I first examine a com- munity of analytically oriented British life researchers, exemplified by Richard Owen, and certain technical questions they considered important. These involved the neu- rosciences, embryology, and reproduction and regeneration. The paper then looks at a new generation of British palaetiologists, exemplified by W.B. Carpenter and T.H. Huxley, who succeeded at portraying analysts’ questions as irrelevant. The link between styles of reasoning and physical sites is also explored. Analysts favored museums, which facilitated the examination and display of unchanging marine organisms while providing a power base for analysts. I suggest that palaetiologists were helped by vivaria, which included marine aquaria and Wardian cases. -
Invertebrate Zoology Course Syllabus Instructor
BIOL 308 -- Invertebrate Zoology Course Syllabus Instructor: Dr. David Allard Office: 219A SCIT Schedule: Office Hours MTW 8-10:30; 1-4 Phone/Fax: (903) 334-6672 Personal http://www.tamut.edu/~allard/index.html Webpage: Email: [email protected] Instant Message: Go to Dr. Allard's Communication Page Catalog BIOL 308 Invertebrate Zoology. This course will explore the diversity Description: of invertebrate types, morphologically, embryologically, and physiologically. The ecological role of invertebrates will be emphasized. Prerequisite: 2 semesters of biology. Required Text: Pechenik, Jan A. 2004. Biology of the Invertebrates. 6th Edition. McGraw-Hill. ISBN: 0073028266 Course Objectives: The general objective of this course is to familiarize the student with the basic concepts of invertebrate zoology. After taking this course the student should have an understanding of the following concepts: (1) Familiarity with the invertebrate phyla; (2) Invertebrate anatomy; (3) Invertebrate natural history; (3) Collection methods; (4) Invertebrate behavior; (5) Evolution of invertebrates. Tentative Course Outline Introduction -- Invertebrate Zoology Basics -- Read Chapters 1 and 2 Protozoa Lab Protozoa Lecture -- Read Chapter 3 Porifera Lab Field Collection on your own Porifera Lecture -- Read Chapter 4 Cnidaria Lab Cnidaria & Ctenophora Lecture -- Read Chapters 5, 6 & 7 Lab Exam I Lecture Exam I Platyhelminthes Lab Platyhelminthes Lecture -- Read Chapter 8 Nematode Lab Nematodes & Friends Lecture -- Read Chapters 16 & 17 Classification Activity -
Mesodermal Anatomies in Cnidarian Polyps and Medusae
Int. J. Dev. Biol. 50: 589-599 (2006) doi: 10.1387/ijdb.062150ks Review Mesodermal anatomies in cnidarian polyps and medusae KATJA SEIPEL and VOLKER SCHMID* Institute of Zoology, University of Basel, Biocenter/Pharmacenter, Basel, Switzerland Introduction .............................................................................................................................................................................................................................. 589 Diploblasty in the historical perspective .......................................................................................................................................... 589 The cnidarian mesoderm unearthed ...................................................................................................................................................... 591 What is a mesoderm? ....................................................................................................................................................................................... 591 Muscle cells in Cnidaria ............................................................................................................................................................................... 592 Mesodermal muscle in Hydrozoa? ................................................................................................................................................. 592 Mesodermal differentiation in Scyphozoa, Cubozoa and Anthozoa ............................................... -
Evolution of Striated Muscle: Jellyfish and the Origin of Triploblasty
View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by Elsevier - Publisher Connector Developmental Biology 282 (2005) 14 – 26 www.elsevier.com/locate/ydbio Review Evolution of striated muscle: Jellyfish and the origin of triploblasty Katja Seipel, Volker Schmid* Institute of Zoology, Biocenter/Pharmacenter, Klingelbergstrasse 50, CH-4056 Basel, Switzerland Received for publication 6 October 2004, revised 9 March 2005, accepted 27 March 2005 Available online 26 April 2005 Abstract The larval and polyp stages of extant Cnidaria are bi-layered with an absence of mesoderm and its differentiation products. This anatomy originally prompted the diploblast classification of the cnidarian phylum. The medusa stage, or jellyfish, however, has a more complex anatomy characterized by a swimming bell with a well-developed striated muscle layer. Based on developmental histology of the hydrozoan medusa this muscle derives from the entocodon, a mesoderm-like third cell layer established at the onset of medusa formation. According to recent molecular studies cnidarian homologs to bilaterian mesoderm and myogenic regulators are expressed in the larval and polyp stages as well as in the entocodon and derived striated muscle. Moreover striated and smooth muscle cells may have evolved directly and independently from non-muscle cells as indicated by phylogenetic analysis of myosin heavy chain genes (MHC class II). To accommodate all evidences we propose that striated muscle-based locomotion coevolved with the nervous and digestive systems in a basic metazoan Bauplan from which the ancestors of the Ctenophora (comb jellyfish), Cnidaria (jellyfish and polyps), as well as the Bilateria are derived. -
Invertebrate Paleontology Earth Sciences Division Natural History
Invertebrate Paleontology 19^ Earth Sciences Division Natural History Mu 3311m A NEW SPECIES OF CHIMNEY-BUILDING PENITELLA FROM THE GULF OF ALASKA (BIVALVIA: PHOLADIDAE) * LIBRARY 'Ol ANGBIES GOIJNTV \i: A>., , -APOsrr.'ON GEORGE L. KENNEDY AND JOHN M. ARMENTROUT 1 Made in United States of America Reprinted from THE VELIGER Vol. 32, No. 3, July 1989 © California Malacozoological Society, Inc., 1989 THE VELIGER © CMS, Inc., 1989 The Veliger 32(3):320-325 (July 3, 1989) A New Species of Chimney-Building Penitella from the Gulf of Alaska (Bivalvia: Pholadidae) by GEORGE L. KENNEDY Invertebrate Paleontology Section, Natural History Museum of Los Angeles County, 900 Exposition Boulevard, Los Angeles, California 90007, USA AND JOHN M. ARMENTROUT Mobil Oil Corporation, New Exploration Ventures, P.O. Box 650232, Dallas, Texas 75265, USA Abstract. Penitella hopkinsi sp. nov., from the Gulf of Alaska, differs from other species in the genus by its blunt and thickened posterior margin that inserts against the base of a chimney of agglutinated sediment (unique in the genus), by the shape of the mesoplax, and by details of the umbonal reflection and dorsal extension of the callum. Anatomy is unknown. Late Pleistocene records of the species range from the Seward Peninsula, Alaska, to Point Arena, California. INTRODUCTION acology]); MCZ, Museum of Comparative Zoology, Cam- bridge; NMC, National Museum of Natural Sciences, Recent efforts to identify several enigmatic species of Peni- Ottawa; NSMT, National Science Museum, Tokyo; tella Valenciennes, 1846, from both the northeastern and SBMNH, Santa Barbara Museum of Natural History, northwestern Pacific revealed that a number of nomencla- Santa Barbara; UCLA, University of California, Los An- tural and taxonomic problems in the genus still need to geles (collections at LACM); UCMP, University of Cal- be resolved (KENNEDY, 1985). -
IB 103LF: Invertebrate Zoology
IB 103LF: Invertebrate Zoology Course Instructor TBD Graduate Student Instructors TBD COURSE DESCRIPTION AND GOALS Invertebrate zoology includes the biology of all animal organisms that do not have vertebrae, which means more than 95% of all described species of animals. This 5-credit course includes 3h of lecture and 6h of laboratory section per week. Lectures will concentrate on organizing and interpreting information about invertebrates to illustrate (1) evolutionary relationships within and among taxa, (2) morphology, reproduction, development and physiology of major phyla, and (3) adaptations that permit species to inhabit particular environments. Laboratories will be a hands-on opportunity for you to learn about the structure and function of the major invertebrate body plans; and field trips will bring all information together, with living examples. My primary objective in this course is to present the invertebrate diversity that has evolved on Earth (at least of the ones we are aware of); not in depth, but with an overview and selected highlights. By the end of the course you should be able to (1) identify major invertebrate phyla and the morphological characters that define them; (2) apply basic concepts of zoological classification and interpret phylogenetic trees; and (3) discuss current hypotheses for the origin of major invertebrate groups and the relationships among them. Along with introducing you to the diversity and evolution of animal body plans, my goal is also (4) to develop your written and oral communication skills. I also hope you will teach and learn from one another, especially when studying course materials and completing laboratory exercises. ASSIGNMENTS AND GRADING The final grade will be scaled according to course units: 60% for lecture (3 units) and 40% for laboratory (2 units) assignments. -
Zoology (Zoo & Zool)
ZOOLOGY (ZOO & ZOOL) 241. Human Physiology. Credit 4 hours. Prerequisite: GBIO 151 and BIOL 152 or equivalent. A general study of functions in organ systems of the human. Three hours of lecture and two hours of laboratory per week. Persons majoring in Biology may not use this course to fulfill their major requirements; however, it may be used to fulfill an elective requirement. 242. Principles of Human Biology. Credit 4 hours. Prerequisite: GBIO 151 and BIOL 152 or equivalent. Principles of Human Biology has been primarily designed for students pursing careers with curricula that require a single semester of human biology such as Kinesiology. The major areas of subject concentration are the muscular, cardiovascular, respiratory, nervous, and sensory systems. Biology majors may not use this course to fulfill their major requirements. However, it may be used to fulfill an elective requirement and in calculating cumulative and major averages. Three hours of lecture and two hours of laboratory per week. 250. Human Anatomy and Physiology Lecture I. Credit 3 hours. Prerequisites: GBIO 151 and BIOL 152 and registration in or prior credit for Zoology 252 or permission of the Department Head. Topics covered include: anatomical terminology and the structure and function of molecules, cells, tissues, and the integumentary, skeletal, muscular, nervous, and endocrine systems. Three hours of lecture per week. This course can not be used as a concentration elective for Biology majors; however, it may be used as a general elective. 251. Human Anatomy and Physiology Lecture II. Credit 3 hours. Prerequisites: ZOO 250 and registration in or prior credit for Zoology 253 or permission of the Department Head.