Espécies Marinhas De Cabo Verde (BIOTECMAR)
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Thais Peixoto Macedo DE LIMPADORES a ORNAMENTOS DE AQUÁRIO: a Diversidade De Camarões Recifais Em Unidades De Conservação D
Thais Peixoto Macedo DE LIMPADORES A ORNAMENTOS DE AQUÁRIO: A diversidade de camarões recifais em Unidades de Conservação da costa brasileira Trabalho de Conclusão de Curso apresentado ao programa de graduação do Curso de Ciências Biológicas da Universidade Federal de Santa Catarina em cumprimento a requisito parcial para a obtenção do grau de bacharel em Ciências Biológicas. Orientadora: Profa. Dra. Andrea Santarosa Freire Florianópolis 2018 Ficha de identificação da obra elaborada pelo autor através do Programa de Geração Automática da Biblioteca Universitária da UFSC. Macedo, Thais Peixoto DE LIMPADORES A ORNAMENTOS DE AQUÁRIO : A diversidade de camarões recifais em Unidades de Conservação da costa brasileira / Thais Peixoto Macedo ; orientadora, Andrea Santarosa Freire, 2018. 65 p. Trabalho de Conclusão de Curso (graduação) - Universidade Federal de Santa Catarina, Centro de Ciências Biológicas, Graduação em Ciências Biológicas, Florianópolis, 2018. Inclui referências. 1. Ciências Biológicas. 2. Diversidade taxonômica. 3. Padrões de diversidade. 4. Lista de espécies. 5. Caridea e Stenopodidea. I. Freire, Andrea Santarosa. II. Universidade Federal de Santa Catarina. Graduação em Ciências Biológicas. III. Título. Thais Peixoto Macedo DE LIMPADORES A ORNAMENTOS DE AQUÁRIO: A diversidade de camarões recifais em Unidades de Conservação da costa brasileira Este Trabalho de Conclusão de Curso foi julgado adequado para obtenção do Título de “Bacharel em Ciências Biológicas” e aprovada em sua forma final pela Universidade Federal de Santa Catarina Florianópolis, 6 de dezembro de 2018. ________________________ Prof. Dr. Carlos Zanetti Coordenador do Curso Banca Examinadora: ________________________ Prof.ª Dr.ª Andrea Santarosa Freire Orientadora Universidade Federal de Santa Catarina ________________________ Prof. Dr. Sergio Floeter Universidade Federal de Santa Catarina ________________________ Tammy Arai Iwasa Universidade Estadual de Campinas AGRADECIMENTOS Ciência não se faz sozinho. -
Review on the Genuscinetorhynchus Holthuis, 1995 from the Indo-West
Or. Chctce, : (JOitt Tn®/ S^/wtr H7' 2 Crustacea Decapoda: Review on the genus Cinetorhynchus Holthuis, 1995 from the Indo-West Pacific (Caridea: Rhynchocinetidae) JUNJIOKUNO Natural History Museum and Institute, Chiba, 955-2 Aoba-cho, Chuo-ku, Chiba, 260, Japan ABSTRACT Cinetorhynchus Holthuis, 1995 established as a subgenus of the genus Rhynchocinetes H. Milne Edwards, 1837, is elevated to the generic rank. In addition to the definitions pointed out by HOLTHUIS (1995), this genus is distinguished from the type genus by having two rows of spines on the ischia and rneri of the third to fifth pereiopods. Cinetorhynchus is composed of C. rigens (Gordon, 1936), the type species, from the Madeira Islands, eastern Atlantic, and the following six species from the Indo-West Pacific : C. concolor (Okuno, 1994), C. erythrostictus sp. nov., C. hendersoni (Kemp, 1925), G hiatti (Holthuis & Hayashi, 1967), C. reticulum sp. nov. and C. striatus (Nomura & Hayashi, 1992). The key for the morphological characters and the color photographs of the live-coloration of each species are provided for the identification of the species. INTRODUCTION The caridean family Rhynchocinetidae has been composed of the single genus, Rhynchocinetes H. Milne Edwards, 1837 (HOLTHUIS, 1993), which contains 15 species. Most shrimps are inhabitant of tropical to temperate reefs, and commonly known as hinge-beak shrimp in having the typically movable rostrum which is articulated with the carapace. Recently, the rhynchocinetid shrimps were clearly divided into two subgenera based on the following morphological characters (HOLTHUIS, 1995). The subgenus Rhynchocinetes has two acute teeth at median carina of carapace behind the distinct rostral articulation, a supraorbital spine and no spine on the posterolateral margins of fourth and fifth abdominal somites, whereas the subgenus Cinetorhynchus Holthuis, 1995 has three teeth at OKUNO, J., 1997 — Crustacea Decapoda : Review on the genus Cinetorhynchus Holthuis, 1995 from the Indo-West Pacific (Caridea : Rhynchocinetidae). -
The 1940 Ricketts-Steinbeck Sea of Cortez Expedition: an 80-Year Retrospective Guest Edited by Richard C
JOURNAL OF THE SOUTHWEST Volume 62, Number 2 Summer 2020 Edited by Jeffrey M. Banister THE SOUTHWEST CENTER UNIVERSITY OF ARIZONA TUCSON Associate Editors EMMA PÉREZ Production MANUSCRIPT EDITING: DEBRA MAKAY DESIGN & TYPOGRAPHY: ALENE RANDKLEV West Press, Tucson, AZ COVER DESIGN: CHRISTINE HUBBARD Editorial Advisors LARRY EVERS ERIC PERRAMOND University of Arizona Colorado College MICHAEL BRESCIA LUCERO RADONIC University of Arizona Michigan State University JACQUES GALINIER SYLVIA RODRIGUEZ CNRS, Université de Paris X University of New Mexico CURTIS M. HINSLEY THOMAS E. SHERIDAN Northern Arizona University University of Arizona MARIO MATERASSI CHARLES TATUM Università degli Studi di Firenze University of Arizona CAROLYN O’MEARA FRANCISCO MANZO TAYLOR Universidad Nacional Autónoma Hermosillo, Sonora de México RAYMOND H. THOMPSON MARTIN PADGET University of Arizona University of Wales, Aberystwyth Journal of the Southwest is published in association with the Consortium for Southwest Studies: Austin College, Colorado College, Fort Lewis College, Southern Methodist University, Texas State University, University of Arizona, University of New Mexico, and University of Texas at Arlington. Contents VOLUME 62, NUMBER 2, SUmmer 2020 THE 1940 RICKETTS-STEINBECK SEA OF CORTEZ EXPEDITION: AN 80-YEAR RETROSPECTIVE GUesT EDITed BY RIchard C. BRUsca DedIcaTed TO The WesTerN FLYer FOUNdaTION Publishing the Southwest RIchard C. BRUsca 215 The 1940 Ricketts-Steinbeck Sea of Cortez Expedition, with Annotated Lists of Species and Collection Sites RIchard C. BRUsca 218 The Making of a Marine Biologist: Ed Ricketts RIchard C. BRUsca AND T. LINdseY HasKIN 335 Ed Ricketts: From Pacific Tides to the Sea of Cortez DONald G. Kohrs 373 The Tangled Journey of the Western Flyer: The Boat and Its Fisheries KEVIN M. -
Tese Bruno W. Giraldes 2012. Decápodes
UNIVERSIDADE FEDERAL DE PERNAMBUCO Universidade Federal de Pernambuco CENTRO DECentro TECNOLOGIA de Tecnologia E GEOCIÊNCIAS e Geociências DEPARTAMENTODepartamento DE OCEANOGRAFIA de Oceanografia PROGRAMA ProgramaDE PÓS-GRADUAÇÃO de Pós Graduação EM OCEANOGRAFIA em Oceanografia “Decápodes infralitorâneos dos recifes costeiros de Pernambuco, nordeste do Brasil – uma abordagem com Censo Visual Subaquático noturno” Fitoplâncton do estuário do rio dos Passos (Rio Formoso, Pernambuco, Brasil). BRUNO WELTER GIRALDES EVELINE PINHEIRO DE AQUINO Recife Recife, PE2012 2012 BRUNO WELTER GIRALDES “Decápodes infralitorâneos dos recifes costeiros de Pernambuco, nordeste do Brasil – uma abordagem com Censo Visual Subaquático noturno” Tese apresentada ao Programa de Pós- graduação do Departamento de Oceanografia, da Universidade Federal de Pernambuco, como parte dos requisitos para obtenção do título de Doutor em Oceanografia Biológica. Orientador in memoriam: Dr° Petrônio Alves Coelho Orientador: Dr° Jesser Fidelis Souza-Filho Co-Orientador: Dr° Petrônio Alves Coelho Filho Recife 2012 Catalogação na fonte Bibliotecária Margareth Malta, CRB-4 / 1198 G516d Giraldes, Bruno Welter. Decápodes infralitorâneos dos recifes costeiros de Pernambuco, nordeste do Brasil – uma abordagem com censo visual subaquático noturno / Bruno Welter Giraldes. - Recife: O Autor, 2012. xvi, 174 folhas, il., gráfs., tabs. Orientador: Prof. Dr. Petrônio Alves Coelho (in-memoriam). Orientador: Prof. Dr. Jesser Fidelis Souza-Filho. Orientador: Prof. Dr. Petrônio Alves Coelho Filho. Tese (Doutorado) – Universidade Federal de Pernambuco. CTG. Programa de Pós-Graduação em Oceanografia, 2012. Inclui Referências. 1. Oceanografia. 2. Distribuição espacial. 3. Ecologia. 4. Monitoramento. 5. Recife de coral. 6. Mergulho Scuba. 7. Fases lunares. 8. Crustáceos. I. Coelho, Petrônio Alves. (Orientador). II. Souza-Filho, Jesser Fidelis. (Orientador). III. Coelho Filho, Petrônio Alves. -
Confirmation of the Presence of Janicea Antiguensis (Chace, 1972)
Nauplius 20(2): 171-178, 2012 171 Confirmation of the presence ofJanicea antiguensis (Chace, 1972) (Decapoda: Barbouriidae) in northeastern and eastern Brazil Bruno W. Giraldes, Petrônio A. Coelho Filho, Petrônio A. Coelho† and Arthur Anker (BWG) (PAC) Laboratório de Carcinologia, Departamento de Oceanografia, Museu Oceanográfico da Universidade Federal de Pernambuco (MOUFPE). Avenida Arquitetura, s/n, Cidade Universitária, 50670-901, Recife, Pernambuco, Brazil. † in memoriam. E-mail: [email protected] (PACF) Departamento de Engenharia de Pesca, Universidade Federal de Alagoas. Avenida Divaldo Suruagy, s/n, Centro, 57200-000, Penedo, Alagoas, Brazil. E-mail: [email protected] (AA) Laboratório de Zoobentos, Instituto de Ciências do Mar (Labomar), Universidade Federal do Ceará. Avenida da Abolição, 3207, Meireles, 60165-081, Fortaleza, Ceará, Brazil. E-mail: [email protected] Abstract The barbouriid shrimp Janicea antiguesis (Chace, 1972) is reported from Porto de Galinhas and Tamandaré in Pernambuco and Guarapari in Espírito Santo, Brazil. These records confirm the presence ofJ. antiguensis in northeastern and eastern Brazil, considerably extending its Brazilian range from Fernando de Noronha to southern Espírito Santo and also representing the first record of this species from mainland coastal reefs. In Brazil, J. antiguensis occurs in or near marine reef caves, typically at depths between 5 and 15 m, and can be most easily observed while scuba diving at night. Colour photographs of J. antiguensis from various Atlantic localities are provided and its colour pattern is compared to that of the closely related Indo-West Pacific barbouriid shrimp,Parhippolyte misticia (Clark, 1989). Some in situ observations are provided for the Porto de Galinhas population of J. -
Intertidal Life of the Tamaki Estuary and Its Entrance, Auckland July 2005 TP373
Intertidal Life of the Tamaki Estuary and its Entrance, Auckland July 2005 TP373 Auckland Regional Council Technical Publication No. 373, 2008 ISSN 1175-205X(Print) ISSN 1178-6493 (Online) ISBN 978-1-877483-47-9 Intertidal life of the Tamaki Estuary and its Entrance, Auckland Bruce W. Hayward1 Margaret S. Morley1,2 1Geomarine Research, 49 Swainston Rd, St Johns, Auckland 2c/o Auckland War Memorial Museum, Private Bag 92 018, Auckland Prepared for Auckland Regional Council Envrionmental Research 2005 The views expressed in this report are those of the authors and do not necessarily reflect those of the Auckland Regional Council Approved for ARC publication by: _____________________________ Grant Barnes 21 July 2008 Recommended Citation: Hayward, B. W; Morley, M.S (2005). Intertidal life of the Tamaki Estuary and its entrance, Auckland. Prepared for Auckland Regional Council. Auckland Regional Council Technical Publication Number 373. 72p Contents 1 Executive Summary 1 2 Introduction 3 2.1 Study Area 3 2.2 Rock Types Along the Shore 6 2.3 Origin and Shape of the Tamaki Estuary 6 2.4 Previous Work 7 2.4.1 Ecological Surveys 7 2.4.2 Introduced Species 7 2.4.3 Environmental Pollution 8 2.4.4 Geology 9 2.5 Tamaki Estuary Steering Committee 9 3 Methodology 10 3.1 Survey Methodology 10 3.2 Biodiversity and Specimens 10 4 Intertidal Habitats and Communities 11 4.1 Salt Marsh and Salt Meadow 11 4.2 Mangrove Forest 11 4.3 Seagrass Meadows 12 4.4 Sublittoral Seaweed Fringe 12 4.5 Estuarine Mud 12 4.6 Shelly Sand Flats 12 4.7 Shell Banks and Spits -
Coral Cap Species of Flower Garden Banks National Marine Sanctuary
CORAL CAP SPECIES OF FLOWER GARDEN BANKS NATIONAL MARINE SANCTUARY Classification Common name Scientific Name Bacteria Schizothrix calcicola CORAL CAP SPECIES OF FLOWER GARDEN BANKS NATIONAL MARINE SANCTUARY Classification Common name Scientific Name Algae Brown Algae Dictyopteris justii Forded Sea Tumbleweeds Dictyota bartayresii Dictyota cervicornis Dictyota dichotoma Dictyota friabilis (pfaffii) Dictyota humifusa Dictyota menstrualis Dictyota pulchella Ectocarpus elachistaeformis Leathery Lobeweeds, Encrusting Lobophora variegata Fan-leaf Alga Peacock's Tail Padina jamaicensis Padina profunda Padina sanctae-crucis Rosenvingea intricata Gulf Weed, Sargassum Weed Sargassum fluitans White-vein Sargassum Sargassum hystrix Sargasso Weed Sargassum natans Spatoglossum schroederi Sphacelaria tribuloides Sphacelaria Rigidula Leafy Flat-blade Alga Stypopodium zonale Green Algae Papyrus Print Alga Anadyomene stellata Boodelopsis pusilla Bryopsis plumosa Bryopsis pennata Caulerpa microphysa Caulerpa peltata Green Grape Alga Caulerpa racemosa v. macrophysa Cladophora cf. repens Cladophoropsis membranacea Codium decorticatum Dead Man’s Fingers Codium isthmocladum Codium taylori Hair Algae Derbesia cf. marina Entocladia viridis Large Leaf Watercress Alga Halimeda discoidea Halimeda gracilis Green Net Alga Microdictyon boergesenii Spindleweed, Fuzzy Tip Alga Neomeris annulata Struvea sp. CORAL CAP SPECIES OF FLOWER GARDEN BANKS NATIONAL MARINE SANCTUARY Classification Common name Scientific Name Udotea flabellum Ulva lactuca Ulvella lens Elongated -
Decapoda (Crustacea) of the Gulf of Mexico, with Comments on the Amphionidacea
•59 Decapoda (Crustacea) of the Gulf of Mexico, with Comments on the Amphionidacea Darryl L. Felder, Fernando Álvarez, Joseph W. Goy, and Rafael Lemaitre The decapod crustaceans are primarily marine in terms of abundance and diversity, although they include a variety of well- known freshwater and even some semiterrestrial forms. Some species move between marine and freshwater environments, and large populations thrive in oligohaline estuaries of the Gulf of Mexico (GMx). Yet the group also ranges in abundance onto continental shelves, slopes, and even the deepest basin floors in this and other ocean envi- ronments. Especially diverse are the decapod crustacean assemblages of tropical shallow waters, including those of seagrass beds, shell or rubble substrates, and hard sub- strates such as coral reefs. They may live burrowed within varied substrates, wander over the surfaces, or live in some Decapoda. After Faxon 1895. special association with diverse bottom features and host biota. Yet others specialize in exploiting the water column ment in the closely related order Euphausiacea, treated in a itself. Commonly known as the shrimps, hermit crabs, separate chapter of this volume, in which the overall body mole crabs, porcelain crabs, squat lobsters, mud shrimps, plan is otherwise also very shrimplike and all 8 pairs of lobsters, crayfish, and true crabs, this group encompasses thoracic legs are pretty much alike in general shape. It also a number of familiar large or commercially important differs from a peculiar arrangement in the monospecific species, though these are markedly outnumbered by small order Amphionidacea, in which an expanded, semimem- cryptic forms. branous carapace extends to totally enclose the compara- The name “deca- poda” (= 10 legs) originates from the tively small thoracic legs, but one of several features sepa- usually conspicuously differentiated posteriormost 5 pairs rating this group from decapods (Williamson 1973). -
The Nature and Role of Pigments of Marine Invertebrates†
REVIEW www.rsc.org/npr | Natural Product Reports The nature and role of pigments of marine invertebrates† Wickramasinghe M. Bandaranayake Received (in Cambridge, UK) 15th December 2005 First published as an Advance Article on the web 14th March 2006 DOI: 10.1039/b307612c Covering: 1980 to 2005 Marine animals, especially those from tropical waters, are often brilliantly coloured, and bright colouration is widespread in both sessile and non-sessile invertebrates. These spectacular natural colours are common in species inhabiting shallow waters, and appear not only in animals exposed to bright light, but also in those living in dark areas where colours are visible only with artificial illumination. Marine organisms also show variation in colour with depth and geographical location, and display great variety in colour patterning. These colour characteristics are the result of several different processes, and serve various purposes – the distribution and function of pigments seems to vary between invertebrate groups. In addition to playing an important role in how marine organisms interact, pigments may be involved in physiological processes. Although nitrogenous pigments predominate, marine organisms contain pigments belonging to all the major strutural classes of natural products, as well as some that are unique to the marine environment. This review discusses the nature and significance of such pigments, the chemical and biological processes involved, the factors responsible for and affecting bright colourations, as well as their evolution -
Diversity and Abundance of Conspicuous Macrocrustaceans on Coral Reefs Differing in Level of Degradation
Diversity and abundance of conspicuous macrocrustaceans on coral reefs differing in level of degradation Roberto González-Gómez1,2, Patricia Briones-Fourzán1, Lorenzo Álvarez-Filip1 and Enrique Lozano-Álvarez1 1 Instituto de Ciencias del Mar y Limnología, Unidad Académica de Sistemas Arrecifales, Universidad Nacional Autónoma de México, Puerto Morelos, Quintana Roo, Mexico 2 Posgrado en Ciencias del Mar y Limnología, Universidad Nacional Autónoma de México, Mexico, Ciudad de México, Mexico ABSTRACT Coral reefs sustain abundant and diverse macrocrustaceans that perform multiple ecological roles, but coral reefs are undergoing massive degradation that may be driving changes in the species composition and abundance of reef-associated macrocrustaceans. To provide insight into this issue, we used non-destructive visual census techniques to compare the diversity and abundance of conspicuous macrocrustaceans (i.e., those >1 cm and visible without disturbance) between two shallow Caribbean coral reefs similar in size (∼1.5 km in length) and close to each other, but one (``Limones'') characterized by extensive stands of the branching coral Acropora palmata, and the other (``Bonanza'') dominated by macroalgae and relic coral skeletons and rubble (i.e., degraded). We also assessed the structural complexity of each reef and the percent cover of various benthic community components. Given the type of growth of A. palmata, we expected to find a greater structural complexity, a higher cover of live coral, and a lower cover of macroalgae on Limones, -
First Sighting of Prostheceraeus Roseus Lang, 1884 and Tylodina Perversa (Gmelin, 1791) in the Eastern Mediterranean, Turkey
NESciences, 2021, 6(2): 127-132 doi: 10.28978/nesciences.970555 First Sighting of Prostheceraeus roseus Lang, 1884 and Tylodina perversa (Gmelin, 1791) in the Eastern Mediterranean, Turkey Deniz Ergüden1 *, Cemal Turan1 , Servet Ahmet Doğdu1 , Necdet Uyğur2 1Department of Marine Science, Faculty of Marine Sciences and Technology, University of Iskenderun Technical, TR-31220, Iskenderun, Hatay, Turkey 2Vocational School of Maritime, University of Iskenderun Technical, Iskenderun, Hatay, Turkey Abstract A single specimen of Prostheceraeus roseus was recorded for the first time on 25 April 2019 from the Cevlik coast, Iskenderun Bay (Eastern Mediterranean, Turkey). After, other a single specimen of Tylodina perversa was observed during Scuba diving from the Keldag located within Cevlik (Eastern Mediterranean), at a depth of 12 m on rocky habitat covered with algae. The present finding is the first occurrence of Prostheceraeus roseus and Tylodina perversa from the eastern Mediterranean, Turkey. Although these species are live in the Mediterranean Sea up to date no specimens of these species reported in this easternmost coast of Turkey. Keywords: Flatworm, Sea slug, Range extension, Iskenderun Bay, Turkey coast Article history: Received 26 January 2021, Accepted 19 February 2021, Available online 12 July 2021 Introduction The phylum Platyhelminthes are generally hermaphroditic and native in the Mediterranean. This group is known as free-living and parasitic flatworms. However, the free-living species are formerly included into Turbellaria, which is mostly non-parasitic (Ehlers & Sopott-Ehlers, (1995). The only have parasitic species are Trematoda, Cestoda, and Monogenea (Çınar, 2014). Nudibranchs and their relatives are also known as sea slugs. Nudibranchs belong to a larger group of gastropod mollusks called as Opisthobranchia (Gosliner et al., 2015). -
Molecular Phylogeny of Hingebeak Shrimps
bs_bs_banner Zoological Journal of the Linnean Society, 2014, 172, 426–450. With 7 figures Molecular phylogeny of hinge-beak shrimps (Decapoda: Caridea: Rhynchocinetes and Cinetorhynchus) and allies: a formal test of familiar and generic monophyly using a multilocus phylogeny J. ANTONIO BAEZA1,2,3*, RAYMOND T. BAUER4, JUNJI OKUNO5 and MARTIN THIEL3,6 1Department of Biological Sciences, Clemson University, 132 Long Hall, Clemson, South Carolina 29634, USA 2Smithsonian Marine Station at Fort Pierce, 701 Seaway Drive, Fort Pierce, Florida 34949, USA 3Departamento de Biología Marina, Facultad de Ciencias del Mar, Universidad Católica del Norte, Larrondo 1281, Coquimbo, Chile 4Department of Biology, University of Louisiana at Lafayette, P.O. Box 42451, Lafayette, Louisiana, USA 5Coastal Branch of Natural History Museum and Institute, Chiba, 123 Yoshio, Katsuura, Chiba, 299-5242, Japan 6Centro de Estudios Avanzados en Zonas Aridas CEAZA, Coquimbo, Chile Received 11 February 2014; revised 6 May 2014; accepted for publication 19 May 2014 The Rhynchocinetidae (‘hinge-beak’ shrimps) is a family of marine caridean decapods with considerable variation in sexual dimorphism, male weaponry, mating tactics, and sexual systems. Thus, this group is an excellent model with which to analyse the evolution of these important characteristics, which are of interest not only in shrimps specifically but also in animal taxa in general. Yet, there exists no phylogenetic hypothesis, either molecular or morphological, for this taxon against which to test either the evolution of behavioural traits within the Rhynchocinetidae or its genealogical relationships with other caridean taxa. In this study, we tested (1) hypotheses on the phylogenetic relationships of rhynchocinetid shrimps, and (2) the efficacy of different (one-, two-, and three-phase) methods to generate a reliable phylogeny.