Isopod Crustaceans of the Caribbean
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Learning in Stomatopod Crustaceans
International Journal of Comparative Psychology, 2006, 19 , 297-317. Copyright 2006 by the International Society for Comparative Psychology Learning in Stomatopod Crustaceans Thomas W. Cronin University of Maryland Baltimore County, U.S.A. Roy L. Caldwell University of California, Berkeley, U.S.A. Justin Marshall University of Queensland, Australia The stomatopod crustaceans, or mantis shrimps, are marine predators that stalk or ambush prey and that have complex intraspecific communication behavior. Their active lifestyles, means of predation, and intricate displays all require unusual flexibility in interacting with the world around them, imply- ing a well-developed ability to learn. Stomatopods have highly evolved sensory systems, including some of the most specialized visual systems known for any animal group. Some species have been demonstrated to learn how to recognize and use novel, artificial burrows, while others are known to learn how to identify novel prey species and handle them for effective predation. Stomatopods learn the identities of individual competitors and mates, using both chemical and visual cues. Furthermore, stomatopods can be trained for psychophysical examination of their sensory abilities, including dem- onstration of color and polarization vision. These flexible and intelligent invertebrates continue to be attractive subjects for basic research on learning in animals with relatively simple nervous systems. Among the most captivating of all arthropods are the stomatopod crusta- ceans, or mantis shrimps. These marine creatures, unfamiliar to most biologists, are abundant members of shallow marine ecosystems, where they are often the dominant invertebrate predators. Their common name refers to their method of capturing prey using a folded, anterior raptorial appendage that looks superficially like the foreleg of a praying mantis. -
Decapod Crustacean Grooming: Functional Morphology, Adaptive Value, and Phylogenetic Significance
Decapod crustacean grooming: Functional morphology, adaptive value, and phylogenetic significance N RAYMOND T.BAUER Center for Crustacean Research, University of Southwestern Louisiana, USA ABSTRACT Grooming behavior is well developed in many decapod crustaceans. Antennular grooming by the third maxillipedes is found throughout the Decapoda. Gill cleaning mechanisms are qaite variable: chelipede brushes, setiferous epipods, epipod-setobranch systems. However, microstructure of gill cleaning setae, which are equipped with digitate scale setules, is quite conservative. General body grooming, performed by serrate setal brushes on chelipedes and/or posterior pereiopods, is best developed in decapods at a natant grade of body morphology. Brachyuran crabs exhibit less body grooming and virtually no specialized body grooming structures. It is hypothesized that the fouling pressures for body grooming are more severe in natant than in replant decapods. Epizoic fouling, particularly microbial fouling, and sediment fouling have been shown r I m ans of amputation experiments to produce severe effects on olfactory hairs, gills, and i.icubated embryos within short lime periods. Grooming has been strongly suggested as an important factor in the coevolution of a rhizocephalan parasite and its anomuran host. The behavioral organization of grooming is poorly studied; the nature of stimuli promoting grooming is not understood. Grooming characters may contribute to an understanding of certain aspects of decapod phylogeny. The occurrence of specialized antennal grooming brushes in the Stenopodidea, Caridea, and Dendrobranchiata is probably not due to convergence; alternative hypotheses are proposed to explain the distribution of this grooming character. Gill cleaning and general body grooming characters support a thalassinidean origin of the Anomura; the hypothesis of brachyuran monophyly is supported by the conservative and unique gill-cleaning method of the group. -
DINÂMICA POPULACIONAL DO SIRI-AZUL Callinectes Sapidus (RATHBUN, 1896) (CRUSTACEA: DECAPODA: PORTUNIDAE) NO BAIXO ESTUÁRIO DA LAGOA DOS PATOS, RS, BRASIL
UNIVERSIDADE FEDERAL DO RIO GRANDE PÓS-GRADUAÇÃO EM OCEANOGRAFIA BIOLÓGICA DINÂMICA POPULACIONAL DO SIRI-AZUL Callinectes sapidus (RATHBUN, 1896) (CRUSTACEA: DECAPODA: PORTUNIDAE) NO BAIXO ESTUÁRIO DA LAGOA DOS PATOS, RS, BRASIL LEONARDO SIMÕES FERREIRA Tese apresentada ao Programa de Pós- graduação em Oceanografia Biológica da Universidade Federal do Rio Grande, como requisito parcial à obtenção do título de DOUTOR. Orientador: Fernando D´Incao RIO GRANDE Janeiro/2012 AGRADECIMENTOS Em primeiro lugar ao meu amigo, professor e orientador Dr. Fernando D´Incao, por seus ensinamentos durante todos esses anos. Ao meu coorientador e amigo Dr. Duane Fonseca, por toda ajuda no decorrer da Tese, e principalmente por me passar todo o seu conhecimento sobre o assunto “lipofuscina”. Aos Doutores, Paulo Juarez Rieger, Enir Girondi Reis (Neca), Wilson Wasieleski (Mano), e Rogério Caetano (Cebola) da Unespe, por aceitarem fazer parte da minha banca examinadora, e por suas valiosas correções e sugestões. Toda a galera do Laboratório de Crustáceos Decapodes, os quais são muitos! A minha amiga especial Laboratorista/Dra. Roberta Barutot que me ajudou em grande parte da Tese, assim como o Doutor Luiz Felipe Dumont. Aos meus estagiários, Andréia Barros, Renan (bonitão.com) e Diego Martins (guasco). Meus amigos pescadores: Pingo, Sarinha, Leandro, Giovani e Didico. A minha família, meus pais, minha esposa Juliana e a minha princesinha Luana! Ao Programa de Pós-graduação em Oceanografia Biológica, a Capes pela concessão da bolsa de estudos, ao Instituto de -
Colecciones De Invertebrados Del Museo Nacional De Ciencias Naturales (Csic)
HISTORIA Y PRESENTE DE LAS COLECCIONES DE INVERTEBRADOS DEL MUSEO NACIONAL DE CIENCIAS NATURALES (CSIC) Miguel Villena Sánchez-Valero Conservador de las colecciones de Invertebrados 1 .- RESEÑA HISTÓRICA Para encontrar el origen de la Colección de Invertebrados de Museo Nacional de Ciencias Naturales de Madrid tenemos que remontarnos al último tercio del siglo XVIII, cuando, tras numerosas gestiones y diversos intentos, una Real Orden de Carlos III, promulgada el 17 de octubre de 1771, crea el Real Gabinete de Historia Natural y pone punto final a las enormes carencias que, en ese sentido, tenía España respecto a otros países europeos. En estos momentos iniciales, y hasta que se inaugure de forma definitiva el 4 de noviembre de 1776, las colecciones custodiadas en este establecimiento tendrán como base el excelente Gabinete de Historia Natural formado en París por el sabio ilustrado Pedro Franco Dávila, quien, gracias a sus desvelos en la formación del Gabinete y, sobre todo, gracias a los conocimientos en Historia Natural, adquiridos en una estancia de casi 26 años en París, en contacto con los científicos más reputados del momento, será nombrado Primer Director del establecimiento. Con este nombramiento Don Pedro recibió un triple encargo: que se coloquen en Madrid en debida forma las preciosidades actuales del Gabinete, y las demás con que el Rey providenciará enriquecerle, que se verifique la instrucción pública y, sobre todo, el encargo especial de que le tenga a su cuidado y procure difundir el gusto y nociones de tan importante materia.1 A partir de ese momento el interés principal del Gabinete recién creado y de sus dirigentes será el incremento de las colecciones con ese, cuando menos, triple objetivo que tiene que tener todo Museo2 que se precie de tal, es decir: • Conservar, catalogar, restaurar y exhibir de forma ordenada sus colecciones. -
Download-The-Data (Accessed on 12 July 2021))
diversity Article Integrative Taxonomy of New Zealand Stenopodidea (Crustacea: Decapoda) with New Species and Records for the Region Kareen E. Schnabel 1,* , Qi Kou 2,3 and Peng Xu 4 1 Coasts and Oceans Centre, National Institute of Water & Atmospheric Research, Private Bag 14901 Kilbirnie, Wellington 6241, New Zealand 2 Institute of Oceanology, Chinese Academy of Sciences, Qingdao 266071, China; [email protected] 3 College of Marine Science, University of Chinese Academy of Sciences, Beijing 100049, China 4 Key Laboratory of Marine Ecosystem Dynamics, Second Institute of Oceanography, Ministry of Natural Resources, Hangzhou 310012, China; [email protected] * Correspondence: [email protected]; Tel.: +64-4-386-0862 Abstract: The New Zealand fauna of the crustacean infraorder Stenopodidea, the coral and sponge shrimps, is reviewed using both classical taxonomic and molecular tools. In addition to the three species so far recorded in the region, we report Spongicola goyi for the first time, and formally describe three new species of Spongicolidae. Following the morphological review and DNA sequencing of type specimens, we propose the synonymy of Spongiocaris yaldwyni with S. neocaledonensis and review a proposed broad Indo-West Pacific distribution range of Spongicoloides novaezelandiae. New records for the latter at nearly 54◦ South on the Macquarie Ridge provide the southernmost record for stenopodidean shrimp known to date. Citation: Schnabel, K.E.; Kou, Q.; Xu, Keywords: sponge shrimp; coral cleaner shrimp; taxonomy; cytochrome oxidase 1; 16S ribosomal P. Integrative Taxonomy of New RNA; association; southwest Pacific Ocean Zealand Stenopodidea (Crustacea: Decapoda) with New Species and Records for the Region. -
Cherax Murido (A Crayfish, No Common Name) Ecological Risk Screening Summary
Cherax murido (a crayfish, no common name) Ecological Risk Screening Summary U.S. Fish and Wildlife Service, September 2011 Revised, September 2012, December 2017 Web Version, 5/17/2017 1 Native Range and Status in the United States Native Range From Crandall and De Grave (2017): “ ‘Paniai Lake’ [Papua Province, Indonesia]” Status in the United States This species has not been reported as introduced or established in the United States. No evidence was found of trade of C. murido in the United States. The Florida Fish and Wildlife Conservation Commission has listed the crayfish Cherax murido as a prohibited species. Prohibited nonnative species “are considered to be dangerous to the ecology and/or the health and welfare of the people of Florida. These species are not allowed to be personally possessed or used for commercial activities” (FFWCC 2017). From Washington Department of Fish & Wildlife (2017): “(1) Prohibited aquatic animal species. RCW 77.12.020 1 These species are considered by the commission to have a high risk of becoming an invasive species and may not be possessed, imported, purchased, sold, propagated, transported, or released into state waters except as provided in RCW 77.15.253. […] The following species are classified as prohibited animal species: […] Family Parastacidae: Crayfish: All genera except Engaeus, and except the species Cherax quadricarninatus [sic], Cherax papuanus, and Cherax tenuimanus.” Means of Introduction into the United States This species has not been reported as introduced or established in the United States. 2 Biology and Ecology Taxonomic Hierarchy and Taxonomic Standing From Crandall (2016): “Classification: Animalia (Kingdom) > Arthropoda (Phylum) > Crustacea (Subphylum) > Multicrustacea (Superclass) > Malacostraca (Class) > Eumalacostraca (Subclass) > Eucarida (Superorder) > Decapoda (Order) > Pleocyemata (Suborder) > Astacidea (Infraorder) > Parastacoidea (Superfamily) > Parastacidae (Family) > Cherax (Genus) > Cherax murido (Species)” “Status: accepted” Size, Weight, and Age Range No information available. -
Common Kansas Spiders
A Pocket Guide to Common Kansas Spiders By Hank Guarisco Photos by Hank Guarisco Funded by Westar Energy Green Team, American Arachnological Society and the Chickadee Checkoff Published by the Friends of the Great Plains Nature Center i Table of Contents Introduction • 2 Arachnophobia • 3 Spider Anatomy • 4 House Spiders • 5 Hunting Spiders • 5 Venomous Spiders • 6-7 Spider Webs • 8-9 Other Arachnids • 9-12 Species accounts • 13 Texas Brown Tarantula • 14 Brown Recluse • 15 Northern Black Widow • 16 Southern & Western Black Widows • 17-18 Woodlouse Spider • 19 Truncated Cellar Spider • 20 Elongated Cellar Spider • 21 Common Cellar Spider • 22 Checkered Cobweb Weaver • 23 Quasi-social Cobweb Spider • 24 Carolina Wolf Spider • 25 Striped Wolf Spider • 26 Dotted Wolf Spider • 27 Western Lance Spider • 28 Common Nurseryweb Spider • 29 Tufted Nurseryweb Spider • 30 Giant Fishing Spider • 31 Six-spotted Fishing Spider • 32 Garden Ghost Spider Cover Photo: Cherokee Star-bellied Orbweaver ii Eastern Funnelweb Spider • 33 Eastern and Western Parson Spiders • 34 Garden Ghost Spider • 35 Bark Crab Spider • 36 Prairie Crab Spider • 37 Texas Crab Spider • 38 Black-banded Crab Spider • 39 Ridge-faced Flower Spider • 40 Striped Lynx Spider • 41 Black-banded Common and Convict Zebra Spiders • 42 Crab Spider Dimorphic Jumping Spider • 43 Bold Jumping Spider • 44 Apache Jumping Spider • 45 Prairie Jumping Spider • 46 Emerald Jumping Spider • 47 Bark Jumping Spider • 48 Puritan Pirate Spider • 49 Eastern and Four-lined Pirate Spiders • 50 Orchard Spider • 51 Castleback Orbweaver • 52 Triangulate Orbweaver • 53 Common & Cherokee Star-bellied Orbweavers • 54 Black & Yellow Garden Spider • 55 Banded Garden Spider • 56 Marbled Orbweaver • 57 Eastern Arboreal Orbweaver • 58 Western Arboreal Orbweaver • 59 Furrow Orbweaver • 60 Eastern Labyrinth Orbweaver • 61 Giant Long-jawed Orbweaver • 62 Silver Long-jawed Orbweaver • 63 Bowl and Doily Spider • 64 Filmy Dome Spider • 66 References • 67 Pocket Guides • 68-69 1 Introduction This is a guide to the most common spiders found in Kansas. -
Annual Report 1999–2000 1.2MB .Pdf File
museums board of victoria 1999 - 2000 annual report 1999 – 2000 www.museum.vic.gov.au CONTENTS INTRODUCTION Who We Are and What We Do 4 Campuses and Facilities 4 Services 4 Vision 4 Mission 4 Values 4 Operating Principles 4 Strategic Priorities 4 President’s Message 5 Chief Executive Officer’s Message 6 A Year of Highlights 7 The Year in Brief 8 Performance Overview 9 48 REVIEW OF OPERATIONS 1 Melbourne Museum 12 Scienceworks Museum and Melbourne Planetarium 12 Immigration Museum and Hellenic Antiquities Museum 14 National Wool Museum 15 Outreach Services 16 Major Projects 16 Outreach, Technology and Information Services 17 1999 - 2000 Regional Services 17 Programs, Research and Collections 18 > Australian Society Program 18 > Environment Program 19 > Human Mind and Body Program 20 > Indigenous Cultures Program 21 annual annual report museums museums board victoria of > Science Program 21 > Technology Program 22 > Collection Management and Conservation 23 > Production Services 24 Museum Development 24 Corporate Services 25 PEOPLE IN MUSEUM VICTORIA Corporate Governance 28 Executive Management Team 30 Organisational and Functional Structures 31 Corporate Partners 32 Honorary Appointments 33 Volunteers 33 Museum Members 34 Museum Victoria Staff 35 ADDITIONAL INFORMATION Research Projects 42 Lectures 42 Publications 42 Consultancies Commissioned by Museum Victoria 45 Freedom of Information 45 Legislative Changes 45 Availability of Additional Information 46 National Competition Policy 46 Year 2000 Compliance 46 Building and Maintenance Compliance -
An Evolutionary Solution of Terrestrial Isopods to Cope with Low
© 2017. Published by The Company of Biologists Ltd | Journal of Experimental Biology (2017) 220, 1563-1567 doi:10.1242/jeb.156661 SHORT COMMUNICATION An evolutionary solution of terrestrial isopods to cope with low atmospheric oxygen levels Terézia Horváthová*, Andrzej Antoł, Marcin Czarnoleski, Jan Kozłowski and Ulf Bauchinger ABSTRACT alternatively represent secondary adaptations to meet changing The evolution of current terrestrial life was founded by major waves of oxygen requirements in organisms subject to environmental land invasion coinciding with high atmospheric oxygen content. change. These waves were followed by periods with substantially reduced Here, we show that catch-up growth is probably a further example oxygen concentration and accompanied by the evolution of novel of such an evolutionary innovation. Switching from aquatic to air traits. Reproduction and development are limiting factors for conditions during development within the motherly brood pouch of Porcellio scaber evolutionary water–land transitions, and brood care has probably the terrestrial isopod relaxes oxygen limitations facilitated land invasion. Peracarid crustaceans provide parental care and facilitates accelerated growth under motherly protection. Our for their offspring by brooding the early stages within the motherly findings provide important insights into the role of oxygen in brood brood pouch, the marsupium. Terrestrial isopod progeny begin care in present-day terrestrial crustaceans. ontogenetic development within the marsupium in water, but conclude development within the marsupium in air. Our results for MATERIALS AND METHODS progeny growth until hatching from the marsupium provide evidence Experimental animals for the limiting effects of oxygen concentration and for a potentially Early development in terrestrial isopods occurs sequentially in adaptive solution. -
Series Eumalacostraca
Series Eumalacostraca Dr. Amrutha Gopan Assistant Professor School of Fisheries Centurion University of Technology and Management Odisha Sub-class 8. Malacostraca Large sized, Marine and freshwater crustaceans. Body distinctly segmented, usually with a head made of 5 somites, a thorax of 8 somites and an abdomen of 6 somites. Carapace may be present, vestigial or absent. Exoskeleton of head united with few or more thoracic segments to form cephalothoracic carapace. Appendages typically 19 pairs, 13 cephalothoracic 6 abdominal Compound eyes; paired; stalked or sessile. Antennules often biramous. Abdominal caudal style absent; terminates in a telson. Female gonopore on 6th thoracic segment, male on 8th. Young hatching out of the egg is zoea, rarely a nauplius. Sub-class 8. Malacostraca This sub-class includes commercially important crustaceans and hence classification of this class is described in detail. This sub-class includes 2 series, 4 divisions and a large number of orders. Series 1- Leptostraca Series 2- Eumalacostraca Series 1. Leptostraca Marine crustaceans; highly primitive with 21 body segments. Body made up of 21 segments, abdomen of 7 segments. Thoracic appendages similar and foliaceous; eyes stalked Telson has a pair of caudal styles or furcal rami. Eg. Nebalia Series 2. Eumalacostraca Marine, freshwater or terrestrial malacostracans with 20 body segments. Abdomen of 6 or fewer somites. Thoracic appendages typically leg-like. Telson without caudal styles. Eyes sessile or stalked Super-order 1. Syncarida Super-order 2. Peracarida Super-order 3. Hoplocarida Super-order 4. Eucarida Super-order 1. Syncarida Carapace absent. This super order consist two orders. Order 1. Anaspidacea First thoracic segment fused with head. -
Synopsis of the Biological Data on the Loggerhead Sea Turtle Caretta Caretta (Linnaeus 1758)
OF THE BI sTt1cAL HE LOGGERHEAD SEA TURTLE CAC-Err' CARETTA(LINNAEUS 1758) Fish and Wildlife Service U.S. Department of the Interior Biological Report This publication series of the Fish and Wildlife Service comprises reports on the results of research, developments in technology, and ecological surveys and inventories of effects of land-use changes on fishery and wildlife resources. They may include proceedings of workshops, technical conferences, or symposia; and interpretive bibliographies. They also include resource and wetland inventory maps. Copies of this publication may be obtained from the Publications Unit, U.S. Fish and Wildlife Service, Washington, DC 20240, or may be purchased from the National Technical Information Ser- vice (NTIS), 5285 Port Royal Road, Springfield, VA 22161. Library of Congress Cataloging-in-Publication Data Dodd, C. Kenneth. Synopsis of the biological data on the loggerhead sea turtle. (Biological report; 88(14) (May 1988)) Supt. of Docs. no. : I 49.89/2:88(14) Bibliography: p. 1. Loggerhead turtle. I. U.S. Fish and Wildlife Service. II. Title. III. Series: Biological Report (Washington, D.C.) ; 88-14. QL666.C536D63 1988 597.92 88-600121 This report may be cit,-;c1 as follows: Dodd, C. Kenneth, Jr. 1988. Synopsis of the biological data on the Loggerhead Sea Turtle Caretta caretta (Linnaeus 1758). U.S. Fish Wildl. Serv., Biol. Rep. 88(14). 110 pp. Biological Report 88(14) May 1988 Synopsis of the Biological Dataon the Loggerhead Sea Turtle Caretta caretta(Linnaeus 1758) by C. Kenneth Dodd, Jr. U.S. Fish and Wildlife Service National Ecology Research Center 412 N.E. -
Title NOTE on the GIANT ISOPOD GENUS BATHYNOMUS MILNE EDWARDS, 1879 with DESCRIPTION of a NEW SPECIES Author(S)
View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by Kyoto University Research Information Repository NOTE ON THE GIANT ISOPOD GENUS BATHYNOMUS Title MILNE EDWARDS, 1879 WITH DESCRIPTION OF A NEW SPECIES Author(s) Shih, Chang-tai PUBLICATIONS OF THE SETO MARINE BIOLOGICAL Citation LABORATORY (1972), 21(1): 31-42 Issue Date 1972-12-01 URL http://hdl.handle.net/2433/175798 Right Type Departmental Bulletin Paper Textversion publisher Kyoto University NOTE ON THE GIANT ISOPOD GENUS BATHYNOMUS MILNE EDWARDS, 1879 WITH DESCRIPTION OF A NEW SPECIES CHANG-TAl SHIH Canadian Oceanographic Identification Centre National Museum of Natural Sciences OTTAWA, Canada With Text-figures 1-11 and Plates IV-V Abstract-Specimens belonging to the genus Bathynomus Milne Edwards, 1879, are examin ed. Bathynomus decemspinosus n.sp. is described based on a specimen from the Strait of Taiwan. Bathynomus aifini:S Richardson, 1910, is redescribed based on four specimens from the South China Sea. Gut contents of several Bathynomus spp. from different oceans are examined. Bathynomus Milne Edwards, 1879 belongs to the family Cirolanidae of the sub order Flabellifera. Species of this genus have 7 free pereonites and 5 free pleonites and a telson with strongly toothed posterior margin. There are free coxal plates on pereonites 2-7. All pereopods are ambulatory and pleopods swimming and respira tory. Apart from the large size, the most distinct character of the bathynomids is the development of highly ramified branchiae on the posterior surface of inner pleopod rami. Milne Edwards (1879) had briefly described Bathynomus giganteus, the first species of this genus, based on a specimen from the Gulf of Mexico.