A Review of Worldwide Fisheries for Lithodid Crabs (Decapoda: Anomura: Lithodidae) and Their Fluctuations
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Development of Species-Specific Edna-Based Test Systems For
REPORT SNO 7544-2020 Development of species-specific eDNA-based test systems for monitoring of non-indigenous Decapoda in Danish marine waters © Henrik Carl, Natural History Museum, Denmark History © Henrik Carl, Natural NIVA Denmark Water Research REPORT Main Office NIVA Region South NIVA Region East NIVA Region West NIVA Denmark Gaustadalléen 21 Jon Lilletuns vei 3 Sandvikaveien 59 Thormøhlensgate 53 D Njalsgade 76, 4th floor NO-0349 Oslo, Norway NO-4879 Grimstad, Norway NO-2312 Ottestad, Norway NO-5006 Bergen Norway DK 2300 Copenhagen S, Denmark Phone (47) 22 18 51 00 Phone (47) 22 18 51 00 Phone (47) 22 18 51 00 Phone (47) 22 18 51 00 Phone (45) 39 17 97 33 Internet: www.niva.no Title Serial number Date Development of species-specific eDNA-based test systems for monitoring 7544-2020 22 October 2020 of non-indigenous Decapoda in Danish marine waters Author(s) Topic group Distribution Steen W. Knudsen and Jesper H. Andersen – NIVA Denmark Environmental monitor- Public Peter Rask Møller – Natural History Museum, University of Copenhagen ing Geographical area Pages Denmark 54 Client(s) Client's reference Danish Environmental Protection Agency (Miljøstyrelsen) UCB and CEKAN Printed NIVA Project number 180280 Summary We report the development of seven eDNA-based species-specific test systems for monitoring of marine Decapoda in Danish marine waters. The seven species are 1) Callinectes sapidus (blå svømmekrabbe), 2) Eriocheir sinensis (kinesisk uldhånds- krabbe), 3) Hemigrapsus sanguineus (stribet klippekrabbe), 4) Hemigrapsus takanoi (pensel-klippekrabbe), 5) Homarus ameri- canus (amerikansk hummer), 6) Paralithodes camtschaticus (Kamchatka-krabbe) and 7) Rhithropanopeus harrisii (østameri- kansk brakvandskrabbe). -
Pribilof Islands Golden King Crab May 2012 Crab SAFE Report Chapter
Pribilof Islands Golden King Crab May 2012 Crab SAFE Report Chapter (25 April 2012 Draft) Douglas Pengilly, ADF&G, Kodiak Executive Summary 1. Stock: Pribilof Islands (Pribilof District) golden king crab Lithodes aequispinus 2. Catches: Commercial fishing for golden king crab in the Pribilof District has been concentrated in the Pribilof Canyon. The fishing season for this stock has been defined as a calendar year (as opposed to a “crab fishery year”) following the close of the 1983/84 season. The domestic fishery developed in the 1982/83 season, although some limited fishing occurred at least as early as 1981/82. Peak harvest occurred in the 1983/84 season with a retained catch of 0.856-million pounds (388 t) by 50 vessels. Since then, participation in the fishery has been sporadic and annually retained catch has been variable, from 0 pounds in the nine years that no vessels participated (1984, 1986, 1990–1992, 2006–2009) up to a maximum of 0.342-million pounds (155 t) in 1995, when seven vessels made landings. The fishery is not rationalized. There is no state harvest strategy in regulation. A guideline harvest level (GHL) was first established for the fishery in 1999 at 0.200-million pounds (91 t) and has been managed towards a GHL of 0.150- million pounds (68 t) since 2000. No vessels participated in the directed fishery and no landings were made during 2006–2009. One vessel landed catch in 2010 and two vessels landed catch in 2011; directed fishery catch cannot be reported in those two years under the confidentiality requirements of Sec. -
Biological Perspectives on Crab Management in Alaska: an Oral Report to the Alaska Board of Fisheries
BIOLOGICAL PERSPECTIVES ON CRAB MANAGEMENT IN ALASKA: AN ORAL REPORT TO THE ALASKA BOARD OF FISHERIES BY Gordon H. Kruse Regional Information Report No. 5593-02 Alaska Department of Fish & Game Division of Commercial Fisheries P.O. Box 25526 Juneau, Alaska 99802-5526 January 31, 1993 BIOLOGICAL PERSPECTIVES ON CRAB MANAGEMENT IN ALASKA: AN ORAL REPORT TO THE ALASKA BOARD OF FISHERIES BY Gordon H. Kruse Regional Information ~eportlNo. 5J93-02 Alaska Department of Fish & Game Division of Commercial Fisheries P.O. Box 25526 Juneau., Alaska 99802-5526 January 31, 1993 l~heRegional Information Report Series was established in 1987 to provide an in£ormat ion access system for all unpublished divisional reports. These reports frequently serve diverse ad hoc informational purposes or archive basic uninterpreted data. To accommodate timely reporting of recently collected information, reports in this series undergo only limited internal review and may contain preliminary data; this information may be subsequently finalized and published in the formal literature. Consequently, these reports should not be cited without prior approval of the author or the Division of Commercial Fisheries. FORWARD We thought that we would begin the Board meeting with an overview of biology and management of crabs in Alaska. This talk is similar to a presentation that I have given at a couple of recent scientific meetings. One meeting was the International Symposium on Management Strategies for Exploited Fish Populations in Anchorage during October 21-24, 1992, and the other was the annual meeting of the Alaska Chapter of the American Fisheries Society in Valdez, Alaska, during November 16-19, 1992. -
Growth of Juvenile Golden King Crabs Lithodes Aequispinus in the Laboratory
Growth of Juvenile Golden King Crabs in the Laboratory • Paul and Paul 133 Growth of Juvenile Golden King Crabs Lithodes aequispinus in the Laboratory A. J. Paul and J. M. Paul Reprinted from the Alaska Fishery Research Bulletin Vol. 8 No. 2, Winter 2001 The Alaska Fisheries Research Bulletin can be found on the World Wide Web at URL: http://www.state.ak.us/adfg/geninfo/pubs/afrb/afrbhome.htm GrowthAlaska Fishery of Juvenile Research Golden Bulletin King 8(2) Crabs 135–138. in the 2001.Laboratory • Paul and Paul Notes135 Copyright © 2001 by the Alaska Department of Fish and Game Growth of Juvenile Golden King Crabs Lithodes aequispinus in the Laboratory A. J. Paul and J. M. Paul ABSTRACT: Growth observations were made for juvenile male golden king crabs Lithodes aequispinus with carapace lengths (CL) of 2 to 35 mm to improve our understanding of the recruitment process. Gravid females were captured in Prince William Sound, Alaska, and juveniles were reared in the laboratory at 3°–10°C to obtain information on growth per molt and intermolt duration. The equation describing the increase in CL for crabs 2 to 35 mm CL was: New CL mm = Initial CL (1.25) + 0.14; r2 = 0.99, n = 76. The average increase in CL after molting was 28% (SD = 8%), and the corresponding value for chela height (CH) was 33% (SD = 17%). The intermolt duration, in units of degree days, of crabs 2 to 35 mm CL was described by the equation: Intermolt Duration = Initial CL mm (16.32) + 259; r2 = 0.76. -
Challenging the Cold: Crabs Reconquer the Antarctic
Ecology, 86(3), 2005, pp. 619±625 q 2005 by the Ecological Society of America CHALLENGING THE COLD: CRABS RECONQUER THE ANTARCTIC SVEN THATJE,1,5 KLAUS ANGER,2 JAVIER A. CALCAGNO,3 GUSTAVO A. LOVRICH,4 HANS-OTTO POÈ RTNER,1 AND WOLF E. ARNTZ1 1Alfred Wegener Institute for Polar and Marine Research, Columbusstr. D-27568 Bremerhaven, Germany 2Biologische Anstalt Helgoland, Foundation Alfred Wegener Institute, Helgoland, Germany 3Universidad de Buenos Aires, Facultad de Ciencias Exactas y Naturales, Intendente GuÈiraldes 2160, C1428EHA, Buenos Aires, Argentina 4Consejo Nacional de Investigaciones Cientõ®cas y TeÂcnicas, Centro Austral de Investigaciones Cientõ®cas, CC 92, V9410BFD Ushuaia, Tierra del Fuego, Argentina Abstract. Recent records of lithodid crabs in deeper waters off the Antarctic continental slope raised the question of the return of crabs to Antarctic waters, following their extinction in the lower Miocene ;15 million years ago. Antarctic cooling may be responsible for the impoverishment of the marine high Antarctic decapod fauna, presently comprising only ®ve benthic shrimp species. Effects of polar conditions on marine life, including lowered metabolic rates and short seasonal food availability, are discussed as main evolutionary driving forces shaping Antarctic diversity. In particular, planktotrophic larval stages should be vulnerable to the mismatch of prolonged development and short periods of food avail- ability, selecting against complex life cycles. We hypothesize that larval lecithotrophy and cold tolerance, as recently observed in Subantarctic lithodids, represent, together with other adaptations in the adults, key features among the life-history adaptations of lithodids, potentially enabling them to conquer polar ecosystems. The return of benthic top predators to high Antarctic waters under conditions of climate change would considerably alter the benthic communities. -
Changes in Biomass and Chemical Composition During Lecithotrophic Larval Development of the Southern Stone Crab Paralomis Granulosa
MARINE ECOLOGY PROGRESS SERIES Vol. 257: 189–196, 2003 Published August 7 Mar Ecol Prog Ser Changes in biomass and chemical composition during lecithotrophic larval development of the southern stone crab Paralomis granulosa Javier A. Calcagno1,*, Sven Thatje2, Klaus Anger3, Gustavo A. Lovrich4, Antje Kaffenberger3 1Universidad de Buenos Aires, Facultad de Ciencias Exactas y Naturales, Intendente Güiraldes 2160, Lab 64, 4to Piso, Pab II, Cdad Universitaria C1428EHA, Buenos Aires, Argentina 2Alfred Wegener Institute for Polar and Marine Research, PO Box 120 161, 27515 Bremerhaven, Germany 3Biologische Anstalt Helgoland, Stiftung Alfred Wegener Institute for Polar and Marine Research, 27498 Helgoland, Germany 4Consejo Nacional de Investigaciones Científicas y Técnicas, Centro Austral de Investigaciones Científicas, CADIC, CC 92, V9410BFD Ushuaia, Tierra del Fuego, Argentina ABSTRACT: Changes in biomass and elemental composition (dry mass, W; carbon, C; nitrogen, N; hy- drogen, H) were studied in the laboratory during complete larval and early juvenile development of the southern stone crab Paralomis granulosa (Jacquinot). At 6 ± 0.5°C; total larval development from hatching to metamorphosis lasted ca. 56 d, comprising 2 demersal zoeal stages and a benthic mega- lopa, with mean stage durations of 5, 11 and 45 d, respectively. All larval stages of P. granulosa are lecithotrophic, and first feeding and growth were consistently observed immediately after meta- morphosis to the first juvenile crab stage. Regardless of presence or absence of food, W, C, N, and H decreased throughout larval development. Also the C:N mass ratio decreased significantly, from 7.2 at hatching to 4.2 at metamorphosis, indicating that a large initial lipid store remaining from the egg yolk was gradually utilised as an internal energy source. -
How to Become a Crab: Phenotypic Constraints on a Recurring Body Plan
Preprints (www.preprints.org) | NOT PEER-REVIEWED | Posted: 25 December 2020 doi:10.20944/preprints202012.0664.v1 How to become a crab: Phenotypic constraints on a recurring body plan Joanna M. Wolfe1*, Javier Luque1,2,3, Heather D. Bracken-Grissom4 1 Museum of Comparative Zoology and Department of Organismic & Evolutionary Biology, Harvard University, 26 Oxford St, Cambridge, MA 02138, USA 2 Smithsonian Tropical Research Institute, Balboa–Ancon, 0843–03092, Panama, Panama 3 Department of Earth and Planetary Sciences, Yale University, New Haven, CT 06520-8109, USA 4 Institute of Environment and Department of Biological Sciences, Florida International University, Biscayne Bay Campus, 3000 NE 151 Street, North Miami, FL 33181, USA * E-mail: [email protected] Summary: A fundamental question in biology is whether phenotypes can be predicted by ecological or genomic rules. For over 140 years, convergent evolution of the crab-like body plan (with a wide and flattened shape, and a bent abdomen) at least five times in decapod crustaceans has been known as ‘carcinization’. The repeated loss of this body plan has been identified as ‘decarcinization’. We offer phylogenetic strategies to include poorly known groups, and direct evidence from fossils, that will resolve the pattern of crab evolution and the degree of phenotypic variation within crabs. Proposed ecological advantages of the crab body are summarized into a hypothesis of phenotypic integration suggesting correlated evolution of the carapace shape and abdomen. Our premise provides fertile ground for future studies of the genomic and developmental basis, and the predictability, of the crab-like body form. Keywords: Crustacea, Anomura, Brachyura, Carcinization, Phylogeny, Convergent evolution, Morphological integration 1 © 2020 by the author(s). -
Short Note Records of Hippa Strigillata (Stimpson, 1860) (Crustacea: Decapoda: Hippidae) in the SE Gulf of California, Mexico
Nauplius 22(1): 63-65, 2014 63 Short Note Records of Hippa strigillata (Stimpson, 1860) (Crustacea: Decapoda: Hippidae) in the SE Gulf of California, Mexico Daniela Ríos-Elósegui and Michel E. Hendrickx* (DRE) Posgrado en Ciencias del Mar y Limnología, Unidad Académica Mazatlán, Instituto de Ciencias del Mar y Limnología, Universidad Nacional Autónoma de México, P.O. Box 811, Mazatlán, Sinaloa 82000, Mexico. E-mail: [email protected] (DRE, MEH) Laboratorio de Invertebrados Bentónicos, Unidad Académica Mazatlán, Instituto de Ciencias del Mar y Limnología, Universidad Nacional Autónoma de México, P.O. Box 811, Mazatlán, Sinaloa 82000, Mexico. E-mail: [email protected]; *Corresponding author ABSTRACT - This paper presents details regarding the collections and records of H. strigillata in the Bay of Mazatlán, SE Gulf of California, Mexico. Samples of H. strigillata were obtained in this bay and suroundings area during different periods and deposited in the collection of UNAM, Mazatlán. Morphometric data, distribution, biological and ecological data were furnished. Key words: Distribution, Gulf of California, Hippa, mole crab Because they represent a very dynamic synonym of Remipes pacificus Dana, 1852) environment, often with high energy wave (Boyko, 2002, Boyko and McLaughlin, action, sandy beaches are considered low 2010) and H. strigillata (Stimpson, 1860) diversity habitats for macro and mega fauna (Hendrickx, 1995; Hendrickx and Harvey, (Tait, 1972). This is particularly true along the 1999). Hippa marmorata occurs from the west coast of Mexico (Dexter, 1976; Hendrickx, central Gulf of California to Colombia, 1996). The intertidal habitat is mostly including several oceanic islands of the eastern dominated by species of bivalve mollusks and Pacific (Revillagigedo, del Coco, Galapagos, small (Amphipoda, Isopoda) to medium size and Clipperton) (Hendrickx, 2005). -
Autotomy in Porcelain Crabs Is an Effective Escape Mechanism from Rockfish Predation Matthew L
Marine Ecology. ISSN 0173-9565 ORIGINAL ARTICLE Autotomy in porcelain crabs is an effective escape mechanism from rockfish predation Matthew L. Knope1 & Ralph J. Larson2 1 Department of Geological and Environmental Sciences, Stanford University, Stanford, CA, USA 2 Department of Biology, San Francisco State University, San Francisco, CA, USA Keywords Abstract Anti-predatory behavior; crabs; natural selection; porcellanidae; rockfish; sebastes. Porcelain crabs possess a ‘hair-trigger’ propensity to autotomize their chelipeds (claws), and laboratory studies have demonstrated that this ability is highly Correspondence effective in avoiding predation from other crabs. However, porcelain crabs are Matthew L. Knope, Department of also subject to predation from fishes, which use a very different means of cap- Geological and Environmental Sciences, ture. In this study, we investigated whether autotomy in porcelain crabs is also Stanford University, 385 Serra Mall, Stanford, effective against predation by fishes. To do this, we examined stomach-contents CA 94305, USA. data from four common species of kelp-forest rockfishes and determined the E-mail: [email protected] frequency of disassociated chelipeds (those with no associated bodies) in porce- Accepted: 8 August 2013 lain crabs and in brachyuran crabs, which do not readily autotomize their chelipeds. We found that disassociated chelipeds of porcelain crabs were six doi: 10.1111/maec.12103 times as common as those of brachyuran crabs (35% of the remains of all por- celain crabs versus 6% of the remains of all brachyuran crabs). We interpret this difference to be evidence that, through autotomy, porcelain crabs escaped ingestion of their entire bodies, and thus certain mortality, at a higher rate than did brachyuran crabs. -
Feeding Habits of the False Southern King Crab Paralomis Granulosa (Lithodidae) in the Beagle Channel, Tierra Del Fuego, Argentina*
SCI. MAR., 63 (Supl. 1): 361-366 SCIENTIA MARINA 1999 MAGELLAN-ANTARCTIC: ECOSYSTEMS THAT DRIFTED APART. W.E. ARNTZ and C. RÍOS (eds.) Feeding habits of the false southern king crab Paralomis granulosa (Lithodidae) in the Beagle Channel, Tierra del Fuego, Argentina* LAURA INÉS COMOGLIO and OSCAR ANTONIO AMIN Centro Austral de Investigaciones Científicas (CADIC-CONICET), CC92, 9410 Ushuaia, Tierra del Fuego, Argentina SUMMARY: Stomach contents of 282 false southern king crabs (Paralomis granulosa), between 10 to 90 mm CL from the Beagle Channel (Golondrina Bay and Roca Mora), Argentina, were examined by the frequency of occurrence method of analy- sis and by a food index. Roca Mora is an area where juveniles (<50 mm CL) dominate and in Golondrina Bay adults (>60 mm CL) are common; in this last area sexual segregation was also observed. The principal food groups for crabs of Golondrina Bay were algae, molluscs, crustaceans, bryozoans and foraminiferans; for crabs from Roca Mora the natural diet consisted of three major food groups: hydrozoans, echinoderms and foraminiferans. The relative frequency of different prey groups varied in rela- tion to the size, season and sex. There were no significant differences in the quantity of food consumed by sexes in both areas. Generally small crabs (<40 mm CL) contained more food than large crabs (>50 mm CL). Juveniles consumed a greater amount of food during winter and spring. In summer (moulting period), juveniles had the highest vacuity index. Adults consumed minor amounts of food during autumn, before the spawning-moulting-mating period when the vacuity index was higher (spring). -
Spatial Variability in Size at Maturity and Reproductive Timing of Golden King Crab (Lithodes Aequispinus) in Southeast Alaska
Spatial variability in size at maturity and reproductive timing of golden king crab (Lithodes aequispinus) in Southeast Alaska Item Type Thesis Authors Olson, Andrew P. Download date 01/10/2021 23:44:12 Link to Item http://hdl.handle.net/11122/6849 SPATIAL VARIABILITY IN SIZE AT MATURITY AND REPRODUCTIVE TIMING OF GOLDEN KING CRAB (LITHODESAEQUISPINUS) IN SOUTHEAST ALASKA By Andrew P. Olson, B.S. A Thesis Submitted in Partial Fulfillment of the Requirements for the Degree of Master of Science in Fisheries University of Alaska Fairbanks August 2016 APPROVED: Dr. Ginny L. Eckert, Committee Chair Dr. Gordon H. Kruse, Committee Member Dr. Christopher E. Siddon, Committee Member Dr. Franz Mueter, Chair Graduate Program in Fisheries Dr. S. Bradley Moran, Dean School of Fisheries and Ocean Sciences Dr. Michael Castellini, Dean of the Graduate School Abstract Many crab fisheries around the world are managed by size, sex and season regulations, where male crabs are given at least one opportunity to reproduce before being harvested. Therefore, to set minimum legal size and fishing season for harvest, information on size at maturity and reproductive timing is needed. Lithodes aequispinus has supported a commercial fishery in Southeast Alaska since 1972, with an average annual harvest of 207 t. The current legal size and season for harvest are based L. aequispinus growth and maturity information from other parts of the range and limited information on reproduction. Additionally, evidence suggests that these life history parameters can vary spatially. Therefore, I investigated size at maturity, reproductive timing, and variation in harvest from the commercial fishery for L. -
Caridea, Polychelida, Anomura and Brachyura) Collected from the Nikko Seamounts, Mariana Arc, Using a Remotely Operated Vehicle “Hyper-Dolphin”
Zootaxa 3764 (3): 279–316 ISSN 1175-5326 (print edition) www.mapress.com/zootaxa/ Article ZOOTAXA Copyright © 2014 Magnolia Press ISSN 1175-5334 (online edition) http://dx.doi.org/10.11646/zootaxa.3764.3.3 http://zoobank.org/urn:lsid:zoobank.org:pub:F1B0E174-89C5-4A9E-B7DA-C5E27AF624D3 Deep-Sea decapod crustaceans (Caridea, Polychelida, Anomura and Brachyura) collected from the Nikko Seamounts, Mariana Arc, using a remotely operated vehicle “Hyper-Dolphin” TOMOYUKI KOMAI1 & SHINJI TSUCHIDA2 1Natural History Museum and Institute, Chiba, 955-2 Aoba-cho, Chuo-ku, Chiba, 260-8682 Japan. E-mail: [email protected] 2Japan Agency of Marine Science and Technology, 2-15 Natsushima-cho, Yokosuka, Kanagawa, 237-0061. E-mail: [email protected] Abstract Samples and images of deep-water benthic decapod crustaceans were collected from the Nikko Seamounts, Mariana Arc, at depths of 520–680 m, by using the remotely operate vehicle “Hyper-Dolphin”, equipped with a high definition camera, digital camera, manipulators and slurp gun (suction sampler). The following seven species were collected, of which three are new to science: Plesionika unicolor n. sp. (Caridea: Pandalidae), Homeryon armarium Galil, 2000 (Polychelida: Poly- chelidae), Eumunida nikko n. sp. (Anomura: Eumunididae), Michelopagurus limatulus (Henderson, 1888) (Anomura: Paguridae), Galilia petricola n. sp. (Brachyura: Leucosiidae), Cyrtomaia micronesica Richer de Forges & Ng, 2007 (Brachyura: Inachidae), and Progeryon mus Ng & Guinot, 1999 (Brachyura: Progeryonidae). Affinities of these three new species are discussed. All but H. armarium are recorded from the Japanese Exclusive Economic Zone for the first time. Brief notes on ecology and/or behavior are given for each species.