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Interactions of Patagonian Toothfish Fisheries With
CCAMLR Science, Vol. 17 (2010): 179–195 INTERACTIONS OF PATAGONIAN TOOTHFISH FISHERIES WITH KILLER AND SPERM WHALES IN THE CROZET ISLANDS EXCLUSIVE ECONOMIC ZONE: AN ASSESSMENT OF DEPREDATION LEVELS AND INSIGHTS ON POSSIBLE MITIGATION STRATEGIES P. Tixier1, N. Gasco2, G. Duhamel2, M. Viviant1, M. Authier1 and C. Guinet1 1 Centre d’Etudes Biologiques de Chizé CNRS, UPR 1934 Villiers-en-Bois, 79360 France Email – [email protected] 2 MNHN Paris, 75005 France Abstract Within the Crozet Islands Exclusive Economic Zone (EEZ), the Patagonian toothfish (Dissostichus eleginoides) longline fishery is exposed to high levels of depredation by killer (Orcinus orca) and sperm whales (Physeter macrocephalus). From 2003 to 2008, sperm whales alone, killer whales alone, and the two species co-occurring were observed on 32.6%, 18.6% and 23.4% respectively of the 4 289 hauled lines. It was estimated that a total of 571 tonnes (€4.8 million) of Patagonian toothfish were lost due to depredation by killer whales and both killer and sperm whales. Killer whales were found to be responsible for the largest part of this loss (>75%), while sperm whales had a lower impact (>25%). Photo-identification data revealed 35 killer whales belonging to four different pods were involved in 81.3% of the interactions. Significant variations of interaction rates with killer whales were detected between vessels suggesting the influence of operational factors on depredation. When killer whales were absent at the beginning of the line hauling process, short lines (<5 000 m) provided higher yield and were significantly less impacted by depredation than longer lines. -
This Keyword List Contains Indian Ocean Place Names of Coral Reefs, Islands, Bays and Other Geographic Features in a Hierarchical Structure
CoRIS Place Keyword Thesaurus by Ocean - 8/9/2016 Indian Ocean This keyword list contains Indian Ocean place names of coral reefs, islands, bays and other geographic features in a hierarchical structure. For example, the first name on the list - Bird Islet - is part of the Addu Atoll, which is in the Indian Ocean. The leading label - OCEAN BASIN - indicates this list is organized according to ocean, sea, and geographic names rather than country place names. The list is sorted alphabetically. The same names are available from “Place Keywords by Country/Territory - Indian Ocean” but sorted by country and territory name. Each place name is followed by a unique identifier enclosed in parentheses. The identifier is made up of the latitude and longitude in whole degrees of the place location, followed by a four digit number. The number is used to uniquely identify multiple places that are located at the same latitude and longitude. For example, the first place name “Bird Islet” has a unique identifier of “00S073E0013”. From that we see that Bird Islet is located at 00 degrees south (S) and 073 degrees east (E). It is place number 0013 at that latitude and longitude. (Note: some long lines wrapped, placing the unique identifier on the following line.) This is a reformatted version of a list that was obtained from ReefBase. OCEAN BASIN > Indian Ocean OCEAN BASIN > Indian Ocean > Addu Atoll > Bird Islet (00S073E0013) OCEAN BASIN > Indian Ocean > Addu Atoll > Bushy Islet (00S073E0014) OCEAN BASIN > Indian Ocean > Addu Atoll > Fedu Island (00S073E0008) -
Country of Citizenship Active Exchange Visitors in 2017
Total Number of Active Exchange Visitors by Country of Citizenship in Calendar Year 2017 Active Exchange Visitors Country of Citizenship in 2017 AFGHANISTAN 418 ALBANIA 460 ALGERIA 316 ANDORRA 16 ANGOLA 70 ANTIGUA AND BARBUDA 29 ARGENTINA 8,428 ARMENIA 325 ARUBA 1 ASHMORE AND CARTIER ISLANDS 1 AUSTRALIA 7,133 AUSTRIA 3,278 AZERBAIJAN 434 BAHAMAS, THE 87 BAHRAIN 135 BANGLADESH 514 BARBADOS 58 BASSAS DA INDIA 1 BELARUS 776 BELGIUM 1,938 BELIZE 55 BENIN 61 BERMUDA 14 BHUTAN 63 BOLIVIA 535 BOSNIA AND HERZEGOVINA 728 BOTSWANA 158 BRAZIL 19,231 BRITISH VIRGIN ISLANDS 3 BRUNEI 44 BULGARIA 4,996 BURKINA FASO 79 BURMA 348 BURUNDI 32 CAMBODIA 258 CAMEROON 263 CANADA 9,638 CAPE VERDE 16 CAYMAN ISLANDS 1 CENTRAL AFRICAN REPUBLIC 27 CHAD 32 Total Number of Active Exchange Visitors by Country of Citizenship in Calendar Year 2017 CHILE 3,284 CHINA 70,240 CHRISTMAS ISLAND 2 CLIPPERTON ISLAND 1 COCOS (KEELING) ISLANDS 3 COLOMBIA 9,749 COMOROS 7 CONGO (BRAZZAVILLE) 37 CONGO (KINSHASA) 95 COSTA RICA 1,424 COTE D'IVOIRE 142 CROATIA 1,119 CUBA 140 CYPRUS 175 CZECH REPUBLIC 4,048 DENMARK 3,707 DJIBOUTI 28 DOMINICA 23 DOMINICAN REPUBLIC 4,170 ECUADOR 2,803 EGYPT 2,593 EL SALVADOR 463 EQUATORIAL GUINEA 9 ERITREA 10 ESTONIA 601 ETHIOPIA 395 FIJI 88 FINLAND 1,814 FRANCE 21,242 FRENCH GUIANA 1 FRENCH POLYNESIA 25 GABON 19 GAMBIA, THE 32 GAZA STRIP 104 GEORGIA 555 GERMANY 32,636 GHANA 686 GIBRALTAR 25 GREECE 1,295 GREENLAND 1 GRENADA 60 GUATEMALA 361 GUINEA 40 Total Number of Active Exchange Visitors by Country of Citizenship in Calendar Year 2017 GUINEA‐BISSAU -
Global Scores the Ocean Health Index Team Table of Contents
2015 GLOBAL SCORES THE OCEAN HEALTH INDEX TEAM TABLE OF CONTENTS Conservation International Introduction to Ocean Health Index ............................................................................................................. 1 Results for 2015 ........................................................................................................................................... 3 Country & Territory Scores ........................................................................................................................... 9 Appreciations ............................................................................................................................................. 23 Citation ...................................................................................................................................................... 23 UC Santa Barbara, National Center for Ecological Analysis & Synthesis INTRODUCTION TO THE OCEAN HEALTH INDEX Important note: Scores in this report differ from scores originally posted on the Ocean Health Index website, www.oceanhealthindex.org and shown in previous reports. Each year the Index improves methods and data where possible. Some improvements change scores and rankings. When such changes occur, all earlier scores are recalculated using the new methods so that any differences in scores between years is due to changes in the conditions evaluated, not to changes in methods. This permits year-to-year comparison between all global-level Index results. Only the scores most recently -
Birds of the British Indian Ocean Territory, Chagos Archipelago, Central Indian Ocean Peter Carr
CARR: Birds of Chagos 57 Birds of the British Indian Ocean Territory, Chagos Archipelago, central Indian Ocean Peter Carr Carr, P., 2015. Birds of the British Indian Ocean Territory, Chagos Archipelago, central Indian Ocean. Indian BIRDS 10 (3&4): 57–70. Peter Carr, 80 Links Way, Beckenham, Kent, England, UK, BR3 3DQ. E-mail: [email protected]. Manuscript received on 02 June 2015. Introduction from three directions, the east, north and west and seabird The Chagos Archipelago lies at the end of the Chagos-Laccadive migrants from four, the north and south and dispersing east and Ridge and is some 500km due South of the Maldives archipelago. west along the equatorial counter current systems.” Observations It is the final termini for migrating organisms heading South in post-1971 have proven that Bourne’s words were prophetic; the central Indian Ocean. It is made up of five islanded atolls landbird and seabird vagrants and migrants are an exciting aspect centred upon the Great Chagos Bank, the largest atoll structure of birding in the Chagos. The vast majority of migratory species in the world. The climate is tropical oceanic, hot and humid yet are of northern hemisphere origin (though there is evidence moderated by trade winds. Mean monthly temperatures vary that a limited number of vagrants are from the east and west) from a maximum of 30.75°C in March to a minimum of 28.03°C and are generally present in the archipelago from September in August. The northern atolls of the archipelago are the wettest through to March. As more ornithological research is conducted in the Indian Ocean (Stoddart & Taylor 1971). -
Florida Department of Education
)/25,'$ '(3$570(17 2) ('8&$7,21 ,PSOHPHQWDWLRQ 'DWH '2( ,1)250$7,21 '$7$ %$6( 5(48,5(0(176 )LVFDO <HDU 92/80( , $8720$7(' 678'(17 ,1)250$7,21 6<67(0 July 1, 1995 $8720$7(' 678'(17 '$7$ (/(0(176 APPENDIX G COUNTRY CODES CODE COUNTRY CODE COUNTRY AF Afghanistan CV Cape Verde AB Albania CJ Cayman Islands AG Algeria CP Central African Republic AN Andorra CD Chad AO Angola CI Chile AV Anguilla CH China AY Antarctica KI Christmas Island AC Antigua and Barbuda CN Clipperton Island AX Antilles KG Cocos Islands (Keeling) AE Argentina CL Colombia AD Armenia CQ Comoros AA Aruba CF Congo AS Australia CR Coral Sea Island AU Austria CS Costa Rica AJ Azerbaijan DF Croatia AI Azores Islands, Portugal CU Cuba BF Bahamas DH Curacao Island BA Bahrain CY Cyprus BS Baltic States CX Czechoslovakia BG Bangladesh DT Czech Republic BB Barbados DK Democratic Kampuchea BI Bassas Da India DA Denmark BE Belgium DJ Djibouti BZ Belize DO Dominica BN Benin DR Dominican Republic BD Bermuda EJ East Timor BH Bhutan EC Ecuador BL Bolivia EG Egypt BJ Bonaire Island ES El Salvador BP Bosnia and Herzegovina EN England BC Botswana EA Equatorial Africa BV Bouvet Island EQ Equatorial Guinea BR Brazil ER Eritrea BT British Virgin Islands EE Estonia BW British West Indies ET Ethiopia BQ Brunei Darussalam EU Europa Island BU Bulgaria FA Falkland Islands (Malvinas) BX Burkina Faso, West Africa FO Faroe Islands BM Burma FJ Fiji BY Burundi FI Finland JB Byelorussia SSR FR France CB Cambodia FM France, Metropolitian CM Cameroon FN French Guiana CC Canada FP French Polynesia Revised: -
Paleoecological Investigations of Diatoms in a Core from Kerguelen Islands, Southeast Indian Ocean
RF 3128 Institute of Polar Studies Report No. 50 PALEOECOLOGICAL INVESTIGATIONS OF DIATOMS IN A CORE FROM KERGUELEN ISLANDS, SOUTHEAST INDIAN OCEAN by Donna D. larson Institute of Polar Studies and Department of Botany The Ohio State University Columbus, Ohio 43210 May 1974 GOLDTHWAIT POLAR LIBRARY The Ohio Stote University BYRD POLAR RESEARCH CENTER Research Foundati on Columbus, Ohio 43212 ERRATUM: Page 37, paragraph 2, "past deposition" shou l d read "peat deposition" , INSTITUTE OF POLAR STUDIES Report No . SO PALEOECOLOGICAL INVESTIGATIONS OF DIATOMS IN A CORE FROM KERGUELEN ISLANDS , SOUTHEAST I NDIAN OCEAN by Donna D. Larson • Institute of Polar Studies and Department of Botany The Ohio State University Columbus , Ohio 43210 May 1974 The Ohio State University Research Foundation Columbus , Ohio 432l? ABSTRACT Percentage frequencies of diatom taxa from 20 levels in a sediment core from Kerguelen Island, Southeast Indian Ocean we~e considered in light of known present ecological preferences, and populations at varying levels compared. By using diatoms as environmental indicators, and also consider- ing physical stratigraphy, environmental conditions prevailing on Kerguelen during the past 10, 000 years were reconstructed. Comparisons we~e also made between depositional environment information determined by diatom studies and conclusions reached by Young and Schofield in a 1972 pollen analysis using soil samples from the same levels in the Kerguelen core • • I I • ii ACKNOWLEDGMENTS I would like to thank Dr. Gary B. Collins for suggesting t he project, Eileen Schofield for supplying the core material, and Dr. Clarence Taft for valuable comments on the manuscript. Most special thanks go to Dr . -
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Photo 1 4.2” x 10.31” Position x: 8.74”, y: .18” Jean-Philippe Palasi Director for European policy Averting global biodiversity loss Photo 1 4.2” x 10.31” Position x: 8.74”, y: .18” Can we avert global biodiversity loss ? That means addressing 5 direct causes: • Habitat destruction • Over exploitation • Pollution • Invasive species • Climate change Photo 1 4.2” x 10.31” Position x: 8.74”, y: .18” Can we avert global biodiversity loss ? That means addressing 5 direct causes: • Habitat destruction • Over exploitation • Pollution • Invasive species • Climate change Photo 1 4.2” x 10.31” Position x: 8.74”, y: .18” Can we avert global biodiversity loss ? That means addressing 5 direct causes: • Habitat destruction • Over exploitation • Pollution • Invasive species • Climate change And several root causes: • Demographic growth • Poverty • Poor governance, corruption and conflicts • Unsustainable economic models (production, Photo 1 consumption and supply chains) 4.2” x 10.31” • Lack of awareness & adequate accounting Position x: 8.74”, y: .18” Habitat destruction Climate change species confined to high altitude At 520 ppm (mid-century?) most of coral species in warm waters would scarcely support further growth. Increased droughts in the Amazon basin 2010 vegetation anomalies, Nasa Earth Observatory CC impact on species Chris Thomas (Leeds univ), Nature, 2004 « We predict, on the basis of mid-range climate-warming scenarios for 2050, that 15-37% of species (…) will be committed to exctinction » = 1 million terrestrial species by 2050 Mitigation is key: - Lower climate projections: ~18% - Mid-range: ~24% Photo 1 4.2” x 10.31” - Maximum: ~35% Position x: 8.74”, y: .18” Biodiversity loss …is a defining issues of our time …is closely linked to climate change …will carry on for decades, probably centuries …can be mitigated through profound changes in our economic and social systems Photo 1 4.2” x 10.31” Position x: 8.74”, y: .18” EU action for global biodiversity Photo 1 4.2” x 10.31” Position x: 8.74”, y: .18” EU action for global biodiversity 1. -
Coral Bleaching Impacts from Back-To-Back 2015–2016 Thermal Anomalies in the Remote Central Indian Ocean
Coral Reefs (2019) 38:605–618 https://doi.org/10.1007/s00338-019-01821-9 REPORT Coral bleaching impacts from back-to-back 2015–2016 thermal anomalies in the remote central Indian Ocean 1,2,5 3,4,5 1 Catherine E. I. Head • Daniel T. I. Bayley • Gwilym Rowlands • 6 7 1 5 Ronan C. Roche • David M. Tickler • Alex D. Rogers • Heather Koldewey • 6 1,8 John R. Turner • Dominic A. Andradi-Brown Received: 28 September 2018 / Accepted: 20 May 2019 / Published online: 12 July 2019 Ó The Author(s) 2019 Abstract Studying scleractinian coral bleaching and becoming the dominant coral genus post-bleaching because recovery dynamics in remote, isolated reef systems offers of an 86% decline in Acropora from 14 to 2% cover. an opportunity to examine impacts of global reef stressors Spatial heterogeneity in Acropora mortality across the in the absence of local human threats. Reefs in the Chagos Archipelago was significantly negatively correlated with Archipelago, central Indian Ocean, suffered severe variation in DHWs and with chlorophyll-a concentrations. bleaching and mortality in 2015 following a 7.5 maximum In 2016, a 17.6 maximum DHWs thermal anomaly caused degree heating weeks (DHWs) thermal anomaly, causing a further damage, with 68% of remaining corals bleaching in 60% coral cover decrease from 30% cover in 2012 to 12% May 2016, and coral cover further declining by 29% at in April 2016. Mortality was taxon specific, with Porites Peros Banhos Atoll (northern Chagos Archipelago) from 14% in March 2016 to 10% in April 2017. We therefore document back-to-back coral bleaching and mortality Topic Editor: Morgan S. -
Florida Department of Education
FLORIDA DEPARTMENT OF EDUCATION Implementation Date: DOE INFORMATION DATA BASE REQUIREMENTS Fiscal Year 1995-96 VOLUME II: AUTOMATED STAFF INFORMATION SYSTEM July 1, 1995 AUTOMATED STAFF DATA ELEMENTS APPENDIX C COUNTRY CODES CODE COUNTRY CODE COUNTRY AF Afghanistan CV Cape Verde AB Albania CJ Cayman Islands AG Algeria CP Central African Republic AN Andorra CD Chad AO Angola CI Chile AV Anguilla CH China AY Antarctica KI Christmas Island AC Antigua and Barbuda CN Clipperton Island AX Antilles KG Cocos Islands (Keeling) AE Argentina CL Colombia AD Armenia CQ Comoros AA Aruba CF Congo AS Australia CR Coral Sea Island AU Austria CS Costa Rica AJ Azerbaijan DF Croatia AI Azores Islands, Portugal CU Cuba BF Bahamas DH Curacao Island BA Bahrain CY Cyprus BS Baltic States CX Czechoslovakia BG Bangladesh DT Czech Republic BB Barbados DK Democratic Kampuchea BI Bassas Da India DA Denmark BE Belgium DJ Djibouti BZ Belize DO Dominica BN Benin DR Dominican Republic BD Bermuda EJ East Timor BH Bhutan EC Ecuador BL Bolivia EG Egypt BJ Bonaire Island ES El Salvador BP Bosnia and Herzegovina EN England BC Botswana EA Equatorial Africa BV Bouvet Island EQ Equatorial Guinea BR Brazil ER Eritrea BT British Virgin Islands EE Estonia BW British West Indies ET Ethiopia BQ Brunei Darussalam EU Europa Island BU Bulgaria FA Falkland Islands (Malvinas) BX Burkina Faso, West Africa FO Faroe Islands BM Burma FJ Fiji BY Burundi FI Finland JB Byelorussia SSR FR France CB Cambodia FM France, Metropolitian CM Cameroon FN French Guiana CC Canada FP French Polynesia Revised: -
Biodiversity: the UK Overseas Territories. Peterborough, Joint Nature Conservation Committee
Biodiversity: the UK Overseas Territories Compiled by S. Oldfield Edited by D. Procter and L.V. Fleming ISBN: 1 86107 502 2 © Copyright Joint Nature Conservation Committee 1999 Illustrations and layout by Barry Larking Cover design Tracey Weeks Printed by CLE Citation. Procter, D., & Fleming, L.V., eds. 1999. Biodiversity: the UK Overseas Territories. Peterborough, Joint Nature Conservation Committee. Disclaimer: reference to legislation and convention texts in this document are correct to the best of our knowledge but must not be taken to infer definitive legal obligation. Cover photographs Front cover: Top right: Southern rockhopper penguin Eudyptes chrysocome chrysocome (Richard White/JNCC). The world’s largest concentrations of southern rockhopper penguin are found on the Falkland Islands. Centre left: Down Rope, Pitcairn Island, South Pacific (Deborah Procter/JNCC). The introduced rat population of Pitcairn Island has successfully been eradicated in a programme funded by the UK Government. Centre right: Male Anegada rock iguana Cyclura pinguis (Glen Gerber/FFI). The Anegada rock iguana has been the subject of a successful breeding and re-introduction programme funded by FCO and FFI in collaboration with the National Parks Trust of the British Virgin Islands. Back cover: Black-browed albatross Diomedea melanophris (Richard White/JNCC). Of the global breeding population of black-browed albatross, 80 % is found on the Falkland Islands and 10% on South Georgia. Background image on front and back cover: Shoal of fish (Charles Sheppard/Warwick -
Investigation of Weather Anomalies in the Low-Latitude Islands of the Indian Ocean in 1991 Anne Réchou, S
Investigation of weather anomalies in the low-latitude islands of the Indian Ocean in 1991 Anne Réchou, S. Kirkwood To cite this version: Anne Réchou, S. Kirkwood. Investigation of weather anomalies in the low-latitude islands of the Indian Ocean in 1991. Annales Geophysicae, European Geosciences Union, 2015, pp.789-804. 10.5194/angeo- 33-789-2015. hal-01173951 HAL Id: hal-01173951 https://hal.archives-ouvertes.fr/hal-01173951 Submitted on 21 Oct 2016 HAL is a multi-disciplinary open access L’archive ouverte pluridisciplinaire HAL, est archive for the deposit and dissemination of sci- destinée au dépôt et à la diffusion de documents entific research documents, whether they are pub- scientifiques de niveau recherche, publiés ou non, lished or not. The documents may come from émanant des établissements d’enseignement et de teaching and research institutions in France or recherche français ou étrangers, des laboratoires abroad, or from public or private research centers. publics ou privés. Ann. Geophys., 33, 789–804, 2015 www.ann-geophys.net/33/789/2015/ doi:10.5194/angeo-33-789-2015 © Author(s) 2015. CC Attribution 3.0 License. Investigation of weather anomalies in the low-latitude islands of the Indian Ocean in 1991 A. Réchou1 and S. Kirkwood2 1Laboratoire de l’Atmosphère et des Cyclones, UMR8105, CNRS, Météo-France, Université de La Réunion, Réunion, France 2Swedish Institute of Space Physics, Box 812, 981 28 Kiruna, Sweden Correspondence to: A. Réchou ([email protected]) Received: 15 November 2014 – Revised: 13 April 2015 – Accepted: 10 June 2015 – Published: 02 July 2015 Abstract. Temperature, precipitation and sunshine duration should be more widespread, it seems unlikely that Pinatubo measurements at meteorological stations across the southern was the cause.