Taxonomy, Phylogeny, and Biogeography of the Endemic Mudflat Crab Helice/Chasmagnathus Complex (Crustacea: Brachyura: Varunidae)
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DNA Barcoding of the Marine Protected Species Chasmagnathus Convexus (Decapoda: Varunidae: Chasmagnathus) in Korea
Anim. Syst. Evol. Divers. Vol. 37, No. 2: 177-181, April 2021 https://doi.org/10.5635/ASED.2021.37.2.084 Short communication DNA Barcoding of the Marine Protected Species Chasmagnathus convexus (Decapoda: Varunidae: Chasmagnathus) in Korea Woo Yong Choi1, Chang Ho Yi1, Ji Min Kim1,2, So Yeon Kim3, Hyoung Seop Kim2, Min-Seop Kim1,* 1National Marine Biodiversity Institute of Korea, Seocheon 33662, Korea 2School of Marine Biotechnology, College of Marine Science, Kunsan National University, Gunsan 54150, Korea 3Korea Fisheries Resources Agency, Gunsan 54021, Korea ABSTRACT Chasmagnathus convexus (De Haan, 1835) is a monotypic species belonging to the family Varunidae. Chasmagnathus convexus has been designated as a marine protected species and endangered species by the Wildlife Protection and Management Act (2005) of Korea due to its declining population in the wild. This declining population is a result of habitat loss and environmental change. This study is the first to research the mitochondrial cytochromec oxidase subunit I (COI) in Korean C. convexus. The maximum intra-specific genetic variation among all C. convexus individuals was 1.8%, while the inter-genetic variation among the five varunid species was in the range of 16.0-23.7%. The COI barcodes will be used as a reference for restoration and conservation studies of Korean C. convexus. Keywords: Chasmagnathus convexus, DNA barcode, cytochrome c oxidase subunit I, marine protected species, endangered species INTRODUCTION habitat loss and environmental changes. DNA barcodes of mitochondrial cytochrome c oxidase The common convex crab Chasmagnathus convexus (De subunit I (COI) are useful markers for differentiating among Haan, 1835) is a monotypic species of the genus Chasmagna several taxonomic groups, including Decapoda (Meyran et al., thus De Haan, 1833. -
Occurrence of Shell Disease and Carapace Abnormalities on Natural
JMBA2 - Biodiversity Records Published on-line Occurrence of shell disease and carapace abnormalities on natural population of Neohelice granulata (Crustacea: Varunidae) from a tropical mangrove forest, Brazil Rafael Augusto Gregati* and Maria Lucia Negreiros Fransozo NEBECC (Group of Studies on Crustacean Biology, Ecology and Culture), Departamento de Zoologia, Instituto de Biociências, Universidade Estadual Paulista (UNESP) 18618-000, Botucatu, SP, Brazil. *Corresponding author, e-mail: [email protected] In this note, we registered the occurrence of shell diseases and carapace abnormalities on a natural population of Neohelice granulata from a tropical mangrove forest, in South America, as a part of a wide ecological study. The occurrence of 32 adult crabs (1.77%) with black or brown spotted shell, or deformities on carapace was registered, collected in the autumn and winter seasons. The low prevalence of shell diseases and abnormalities in this natural population is considered normal and probably caused by injuries occurred during the moult period of crabs. Keywords: Neohelice granulata, shell disease, carapace abnormalities Introduction Shell diseases and external abnormalities or deformities are just one of the common problems affecting freshwater and marine crustaceans. These diseases have been reported in many natural crustacean populations, principally in many species of economic importance such as the Alaskan king crab, portunid crabs, shrimps and lobsters (Maloy, 1978; Sindermann, 1989; Noga et al., 2000). The shell diseases are characterized by various types of erosive lesions on the carapace (Johnson, 1983; Sindermann & Lightner, 1988) and the classical and most common kind of shell disease is know as ‘brown spot’ or ‘black spot’, which consists of various-sized foci of hyperpigmentation (Rosen, 1970; Noga et al., 2000). -
Rapid Range Expansion of the Feral Raccoon (Procyon Lotor) in Kanagawa Prefecture, Japan, and Its Impact on Native Organisms
Rapid range expansion of the feral raccoon (Procyon lotor) in Kanagawa Prefecture, Japan, and its impact on native organisms Hisayo Hayama, Masato Kaneda, and Mayuh Tabata Kanagawa Wildlife Support Network, Raccoon Project. 1-10-11-2 Takamoridai, Isehara 259-1115, Kanagawa, Japan Abstract The distribution of feral raccoons (Procyon lotor) was surveyed in Kanagawa Prefecture, central Japan. Information was collected mainly through use of a questionnaire to municipal offices, environment NGOs, and hunting specialists. The raccoon occupied 26.5% of the area of the prefecture, and its distribution range doubled over three years (2001 to 2003). The most remarkable change was the range expansion of the major population in the south-eastern part of the prefecture, and several small populations that were found throughout the prefecture. Predation by feral raccoons on various native species probably included endangered Tokyo salamanders (Hynobius tokyoensis), a freshwater Asian clam (Corbicula leana), and two large crabs (Helice tridens and Holometopus haematocheir). The impact on native species is likely to be more than negligible. Keywords: Feral raccoon; Procyon lotor; distribution; questionnaire; invasive alien species; native species; Kanagawa Prefecture INTRODUCTION The first record of reproduction of the feral raccoon presence of feral raccoons between 2001 and 2003 in Kanagawa Prefecture was from July 1990, and it and the reliability of the information. One of the was assumed that the raccoon became naturalised in issues relating to reliability is possible confusion with this prefecture around 1988 (Nakamura 1991). the native raccoon dog (Nyctereutes procyonoides; Damage by feral raccoons is increasing and the Canidae), which has a similar facial pattern with a number of raccoons, captured as part of the wildlife black band around the eyes, and a similar body size to pest control programme, is also rapidly increasing. -
Informe Evaluaciones EICAT UICN
EVALUACIÓN DEL IMPACTO AMBIENTAL DE ESPECIES EXÓTICAS INVASORAS EEN LA CUENCA DEL GUADIANA A TRAVÉS DE LA METODOLOGÍA EICAT Abril 2019 Con el apoyo de: Título Evaluación del impacto ambiental de especies exóticas invasoras en la cuenca del Guadiana a través de la metodología EICAT Versión Abril de 2019 Idioma original Español Unidad responsable Programa de especies UICN‐Med Redactado por Laura Capdevila Argüelles (GEIB), Helena Clavero Sousa (UICN‐ Med) y Catherine Numa (UICN‐Med) Proyecto “Evaluación del impacto potencial de especies introducidas en España: análisis de viabilidad del sistema de clasificación EICAT” financiado con el apoyo del Ministerio para la Transición Ecológica, a través de la Fundación Biodiversidad, y de la Fundación MAVA 1 Índice AGRADECIMIENTOS ................................................................................................................................ 3 ACRÓNIMOS ............................................................................................................................................ 4 ANTECEDENTES ....................................................................................................................................... 5 METODOLOGÍA ....................................................................................................................................... 6 FICHAS‐RESUMEN DE LAS EVALUACIONES EICAT ................................................................................... 7 Azolla filiculoides ................................................................................................................................ -
Procyon Lotor
Salgado, I. (2015). Mapache – Procyon lotor. En: Enciclopedia Virtual de los Vertebrados Españoles. Salvador, A., Barja, I. (Eds.). Museo Nacional de Ciencias Naturales, Madrid. http://www.vertebradosibericos.org/ Mapache – Procyon lotor (Linnaeus, 1758) Iván Salgado Museo Nacional de Ciencias Naturales (CSIC) Fecha de publicación: 27-02-2015 ENCICLOPEDIA VIRTUAL DE LOS VERTEBRADOS ESPAÑOLES Sociedad de Amigos del MNCN – MNCN - CSIC Salgado, I. (2015). Mapache – Procyon lotor. En: Enciclopedia Virtual de los Vertebrados Españoles. Salvador, A., Barja, I. (Eds.). Museo Nacional de Ciencias Naturales, Madrid. http://www.vertebradosibericos.org/ Sistemática La familia Procyonidae (Mammalia: Carnivora) incluía las subfamilias Potosinae (Potos y Bassaricyon; arborícolas y frugívoros) y Procyoninae (Bassariscusy, Nasua y Procyon, más terrestres y omnívoros); una clasificación basada en caracteres morfológicos —dentición, cráneo, esqueleto postcraneal, cola anillada— (Decker y Wozencraft, 1991; Baskin, 2004). Pero la semejanza no se debe a parentesco sino a evolución convergente, por adaptación al hábitat y a la dieta; son grupos ecológicos, no evolutivos (Koepfli et al., 2007; Fulton y Strobeck, 2007). Ahora se reconocen 3 linajes, mediante análisis de caracteres moleculares (Koepfli et al., 2007; Fulton y Strobeck, 2007): los kinkajú (Potos); los olingos y coatíes (Bassaricyon, Nasua); y los gatos de cola anillada y mapaches (Bassariscus, Procyon). El primer prociónido conocido (Pseudobassaris riggsi) se localiza en Europa Occidental y se data en el Oligoceno tardío, aunque la diversificación del grupo ocurre en los bosques tropicales de Centroamérica y el sur de Norteamérica durante el Mioceno (Koepfli et al., 2007; Fulton y Strobeck, 2007). Es probable que el mecanismo de especiación fuera la competencia por recursos, que explicaría la coexistencia de distintos géneros de prociónidos en la misma comunidad (Koepfli et al., 2007). -
Molecular Phylogeny, Taxonomy, and Evolution of Nonmarine Lineages Within the American Grapsoid Crabs (Crustacea: Brachyura) Christoph D
Molecular Phylogenetics and Evolution Vol. 15, No. 2, May, pp. 179–190, 2000 doi:10.1006/mpev.1999.0754, available online at http://www.idealibrary.com on Molecular Phylogeny, Taxonomy, and Evolution of Nonmarine Lineages within the American Grapsoid Crabs (Crustacea: Brachyura) Christoph D. Schubart*,§, Jose´ A. Cuesta†, Rudolf Diesel‡, and Darryl L. Felder§ *Fakulta¨tfu¨ r Biologie I: VHF, Universita¨ t Bielefeld, Postfach 100131, 33501 Bielefeld, Germany; †Departamento de Ecologı´a,Facultad de Biologı´a,Universidad de Sevilla, Apdo. 1095, 41080 Sevilla, Spain; ‡Max-Planck-Institut fu¨ r Verhaltensphysiologie, Postfach 1564, 82305 Starnberg, Germany; and §Department of Biology and Laboratory for Crustacean Research, University of Louisiana at Lafayette, Lafayette, Louisiana 70504-2451 Received January 4, 1999; revised November 9, 1999 have attained lifelong independence from the sea (Hart- Grapsoid crabs are best known from the marine noll, 1964; Diesel, 1989; Ng and Tan, 1995; Table 1). intertidal and supratidal. However, some species also The Grapsidae and Gecarcinidae have an almost inhabit shallow subtidal and freshwater habitats. In worldwide distribution, being most predominant and the tropics and subtropics, their distribution even species rich in subtropical and tropical regions. Over- includes mountain streams and tree tops. At present, all, there are 57 grapsid genera with approximately 400 the Grapsoidea consists of the families Grapsidae, recognized species (Schubart and Cuesta, unpubl. data) Gecarcinidae, and Mictyridae, the first being subdi- and 6 gecarcinid genera with 18 species (Tu¨ rkay, 1983; vided into four subfamilies (Grapsinae, Plagusiinae, Tavares, 1991). The Mictyridae consists of a single Sesarminae, and Varuninae). To help resolve phyloge- genus and currently 4 recognized species restricted to netic relationships among these highly adaptive crabs, portions of the mitochondrial genome corresponding the Indo-West Pacific (P. -
Larval Growth
LARVAL GROWTH Edited by ADRIAN M.WENNER University of California, Santa Barbara OFFPRINT A.A.BALKEMA/ROTTERDAM/BOSTON DARRYL L.FELDER* / JOEL W.MARTIN** / JOSEPH W.GOY* * Department of Biology, University of Louisiana, Lafayette, USA ** Department of Biological Science, Florida State University, Tallahassee, USA PATTERNS IN EARLY POSTLARVAL DEVELOPMENT OF DECAPODS ABSTRACT Early postlarval stages may differ from larval and adult phases of the life cycle in such characteristics as body size, morphology, molting frequency, growth rate, nutrient require ments, behavior, and habitat. Primarily by way of recent studies, information on these quaUties in early postlarvae has begun to accrue, information which has not been previously summarized. The change in form (metamorphosis) that occurs between larval and postlarval life is pronounced in some decapod groups but subtle in others. However, in almost all the Deca- poda, some ontogenetic changes in locomotion, feeding, and habitat coincide with meta morphosis and early postlarval growth. The postmetamorphic (first postlarval) stage, here in termed the decapodid, is often a particularly modified transitional stage; terms such as glaucothoe, puerulus, and megalopa have been applied to it. The postlarval stages that fol low the decapodid successively approach more closely the adult form. Morphogenesis of skeletal and other superficial features is particularly apparent at each molt, but histogenesis and organogenesis in early postlarvae is appreciable within intermolt periods. Except for the development of primary and secondary sexual organs, postmetamorphic change in internal anatomy is most pronounced in the first several postlarval instars, with the degree of anatomical reorganization and development decreasing in each of the later juvenile molts. -
Assessment of the Risk to Norwegian Biodiversity from Import and Keeping of Crustaceans in Freshwater Aquaria
VKM Report 2021: 02 Assessment of the risk to Norwegian biodiversity from import and keeping of crustaceans in freshwater aquaria Scientific Opinion of the Panel on Alien Organisms and Trade in Endangered Species of the Norwegian Scientific Committee for Food and Environment VKM Report 2021: 02 Assessment of the risk to Norwegian biodiversity from import and keeping of crustaceans in freshwater aquaria. Scientific Opinion of the Panel on Alien Organisms and trade in Endangered Species (CITES) of the Norwegian Scientific Committee for Food and Environment 15.02.2021 ISBN: 978-82-8259-356-4 ISSN: 2535-4019 Norwegian Scientific Committee for Food and Environment (VKM) Postboks 222 Skøyen 0213 Oslo Norway Phone: +47 21 62 28 00 Email: [email protected] vkm.no vkm.no/english Cover photo: Mohammed Anwarul Kabir Choudhury/Mostphotos.com Suggested citation: VKM, Gaute Velle, Lennart Edsman, Charlotte Evangelista, Stein Ivar Johnsen, Martin Malmstrøm, Trude Vrålstad, Hugo de Boer, Katrine Eldegard, Kjetil Hindar, Lars Robert Hole, Johanna Järnegren, Kyrre Kausrud, Inger Måren, Erlend B. Nilsen, Eli Rueness, Eva B. Thorstad and Anders Nielsen (2021). Assessment of the risk to Norwegian biodiversity from import and keeping of crustaceans in freshwater aquaria. Scientific Opinion of the Panel on Alien Organisms and trade in Endangered Species (CITES) of the Norwegian Scientific Committee for Food and Environment. VKM report 2021:02, ISBN: 978-82-8259- 356-4, ISSN: 2535-4019. Norwegian Scientific Committee for Food and Environment (VKM), Oslo, Norway. 2 Assessment of the risk to Norwegian biodiversity from import and keeping of crustaceans in freshwater aquaria Preparation of the opinion The Norwegian Scientific Committee for Food and Environment (Vitenskapskomiteen for mat og miljø, VKM) appointed a project group to draft the opinion. -
Determination of the Biologically Relevant Sampling Depth for Terrestrial and Aquatic Ecological Risk Assessments
EPA/600/R-15/176 ERASC-015F October 2015 DETERMINATION OF THE BIOLOGICALLY RELEVANT SAMPLING DEPTH FOR TERRESTRIAL AND AQUATIC ECOLOGICAL RISK ASSESSMENTS Ecological Risk Assessment Support Center National Center for Environmental Assessment Office of Research and Development U.S. Environmental Protection Agency Cincinnati, OH NOTICE This document has been subjected to the Agency’s peer and administrative review and has been approved for publication as an EPA document. Mention of trade names or commercial products does not constitute endorsement or recommendation for use. Cover art on left-hand side is an adaptation of illustrations in two Soil Quality Information Sheets published by the USDA, Natural Resources Conservation Service in May 2001: 1) Rangeland Sheet 6, Rangeland Soil Quality—Organic Matter, and 2) Rangeland Sheet 8, Rangeland Soil Quality—Soil Biota. Cover art on right-hand side is an adaptation of an illustration from Life in the Chesapeake Bay, by Alice Jane Lippson and Robert L. Lippson, published by Johns Hopkins University Press, 2715 North Charles Street, Baltimore, MD 21218. Preferred Citation: U.S. EPA (U.S. Environmental Protection Agency). 2015. Determination of the Biologically Relevant Sampling Depth for Terrestrial and Aquatic Ecological Risk Assessments. National Center for Environmental Assessment, Ecological Risk Assessment Support Center, Cincinnati, OH. EPA/600/R-15/176. ii TABLE OF CONTENTS LIST OF TABLES ........................................................................................................................ -
Population Structure of the Grapsid Crab, Helice Tridens Latimera (PARISI) in the Taiho Mangrove, Okinawa, Japan
Bangladesh]. Fish. Res., 5(2), 2001: 201-204 Short Note Population structure of the grapsid crab, Helice tridens latimera (PARISI) in the Taiho mangrove, Okinawa, Japan M.Y. Mia*, S. Shokita and N. Shikatani Department of Chemistry, Biology and Marine Science, University of the Ryukyus, I Senbaru, Nishihara-cho, Okinawa 903-0129, Japan *Corresponding and present address: Bangladesh Fisheries Research Institute, Mymensingh 2201, Bangladesh Abstract Grapsid crab Helice tridens latimera inhabiting mangroves, seashores as well as muddy and rocky areas. Ovigerous females were observed from December to May. Juveniles appeared in July and from December to April. In the laboratory they reached 9.50 mm in carapace width 4 months after hatching. It is likely that spawning of this crab occurs throughout the year. Key words: Helice tridens latimera, Spawning, Juvenile Helice tridens latimera PARISI, 1918 has so far been found in eastern Asia along the coasts of Japan, Taiwan and China (Miyake 1983, Dai and Yang 1991). This crab is common and dominant in Okinawan mangals. So far, no study has been carried out on this crab's population structure and reproductive cycle, but information exists on its larval development (Mia and Shokita 1997). The present study is a part of experiment aimed to assess the population structure of H. t. latimera including its breeding season, natural growth rates, abundance, and functional role in the shallow water community of the estuary of the Taiho River on Okinawa Island. A population census of Helice tridens latimera was carried out monthly from May 1995 to April 1996 in the estuary of the Taiho River. -
Molt and Growth of an Estuarine Crab, Chasmagnathus Granulatus (Brachyura: Varunidae), in Mar Chiquita Coastal Lagoon, Argentina by T
J. Appl. Ichthyol. 20 (2004), 333–344 Received: January 10, 2004 Ó 2004 Blackwell Verlag, Berlin Accepted: May 10, 2004 ISSN 0175–8659 Molt and growth of an estuarine crab, Chasmagnathus granulatus (Brachyura: Varunidae), in Mar Chiquita coastal lagoon, Argentina By T. A. Luppi1,2, E. D. Spivak1, C. C. Bas1,2 and K. Anger3 1Departamento de Biologı´a, Facultad de Ciencias Exactas y Naturales, Universidad Nacional de Mar del Plata, Argentina; 2Consejo Nacional de Investigaciones Cientı´ficas y Te´cnicas (CONICET), Buenos Aires, Argentina; 3Biologische Anstalt Helgoland, Helgoland, Germany Summary log-linear model (Mauchline, 1977). However, the results are 2 Juvenile and adult growth of Chasmagnathus granulatus was highly variable and the coefficient of determination (R )is studied in the laboratory in terms of molt increment in size often low (Tweedale et al., 1993; Gonza´les-Gurriaran et al., (MI) and the intermolt period (IP), comparing data obtained 1995; Lovrich and Vinuesa, 1995; Chen and Kennelly, 1999), from short-term (STE) and long-term (LTE) laboratory but not always (Diesel and Horst, 1995). experiments. Crabs in a pre-molt condition were collected for The MI and IP may be affected by the artificial conditions STE, including the entire size range of the species. Larger crabs prevailing during long-term laboratory cultivation (Hartnoll, remained in the laboratory no more than 14 days; the average 1982). In the present study, we thus distinguish between data time to molt was 5.8 ± 3.1 days. We registered the molt of 94 obtained from short-term and long-term rearing experiments females, 64 males and 34 undifferentiated juveniles and (STE and LTE, respectively). -
Secondary Production of Chasmagnathus
ECOLOGY Secondary production of Chasmagnathus granulatus (Crustacea; Decapoda) in a Ramsar Site from Argentina César, II.a,b* and Armendáriz, LC.a aDivisión Zoología Invertebrados, Facultad de Ciencias Naturales y Museo, Universidad Nacional de La Plata – UNLP, Av. Paseo del Bosque, s/n, 1900, La Plata, Argentina bComisión de Investigaciones Científicas *e-mail: [email protected] Received May 25, 2005 – Accepted September 16, 2005 – Distributed May 31, 2007 (With 2 figures) Abstract Secondary production of Chasmagnathus granulatus was calculated at the Refugio de Vida Silvestre Bahía Samborombón, Argentina (36° 16’ S and 57° 06’ W). Sampling was conducted on nine occasions between March 2001 and February 2003, crabs were collected by hand, physico-chemical variables, granulometry and organic mat- ter contents of the sediments were registered. Crabs were classified as male, female and undifferentiated, measured (total carapace width: CW) and weighed (wet and dry weight: DW at 60 °C, during 48 hours). A correlation analysis between CW and DW was made. Morphometric growth of C. granulatus was by the application of the power function (y = a x b), where the carapace width (CW) was used as an independent variable. Males, females and undifferentiated individuals were analysed separately as well as all together as a group. The data were fitted indicating a positive allom- etry (constant of allometry b > 3), the males showing the greatest allometric value. The individuals (n = 957 juveniles and adults) were separated in cohorts by the polymodal width-frequency distribution converted into normal curves. Three cohorts were found during the whole study period, and two cohorts coexisting in each sampling date.