Short-Tailed Albatross Recovery Plan
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Waved Albatross Phoebastria Irrorata
Waved Albatross Phoebastria irrorata Kingdom Animalia Phylum Chordata Class Aves Order Procellariiformes Family Diomedeidae Common Name Waved or Galapagos Albatross, Albatros de las Galapágos Nearest Relatives There are four families and 93 species of albatrosses, storm-petrels, petrels and shearwaters in the order Procellariformes, which means tubenose. All birds in this order have long, hooked, grooved bills with internal “tubes” that aid in expulsion of salt and also contribute to an unusually acute sense of smell. These birds are all highly pelagic, spending most of their time hunting at sea. They are agile fliers and are awkward or unable to walk on land. Procellariformes are closely related to penguins (Sphenisciformes). The waved albatross is the only albatross species found in the Galapagos though there are several species of petrel, storm-petrel and shearwater as well as the Galapagos penguin. They are most closely related to three other species in the genus Phoebastria, the northern pacific albatrosses. Physical Description This is the largest bird in the Galapagos with a wingspan of up to 2.5 meters and weighs up to 4 kg. The back, wings and tail are light to dark brown becoming lighter grey with wavy barring on the breast, hence the name. The head and neck are mostly white with some buffy yellow/orange on the nape. It has a large, yellow, hooked bill. These birds are easily recognizable by their size and may often be seen floating in large groups offshore. Geographic range Many consider the waved albatross to be endemic to the Galapagos; it is found only on Española (Hood) Island. -
Natural Resources Science Plan
NATURAL RESOURCES SCIENCE PLAN 2011-2015 PAPAHÄNAUMOKUÄKEA MARINE NATIONAL MONUMENT NATURAL RESOURCES SCIENCE PLAN April 2011 Prepared by: Papahänaumokuäkea Marine National Monument National Oceanic and United States Fish and Hawai‘i Department of Land and Atmospheric Administration Wildlife Service Natural Resources 6600 Kalanianaole Highway, Suite 300 300 Ala Moana Blvd., Room 5-231 1151 Punchbowl Street, Room 130 Honolulu, Hawai‘i 96825 Honolulu, Hawai‘i 96850 Honolulu, Hawai‘i 96813 NATURAL RESOURCES SCIENCE PLAN 2011-2015 Contents 1.0 INTRODUCTION .................................................................................................. 1 1.1 Overview of the Monument.....................................................................................3 1.2 Purpose and Scope of the Plan.................................................................................4 1.3 Stakeholders ............................................................................................................5 2.0 SUMMARY OF PLANNING PROCESS .................................................................... 6 2.1 Development of a Research and Monitoring Framework for the Monument .............6 2.2 Public Review and Comment...................................................................................7 2.3 Profiling Ongoing and Potential New Research and Monitoring Projects .................9 2.4 Identification of Research and Monitoring Gaps and Needs...................................10 2.5 Prioritization of Research and Monitoring Activities...............................................10 -
Conservation Status and At-Sea Threats for the Waved Albatross (P H O E B a S T R I a I R R O R a T a )
Please purchase PDFcamp Printer on http://www.verypdf.com/ to remove this watermark. INTER-AMERICAN TROPICAL TUNA COMMISSION I A T T C S E A B I R D T E C H N I C A L M E E T I N G DEL MAR, CALIFORNIA, 11 MAY 2009 Conservation status and at-sea threats for the Waved Albatross (P h o e b a s t r i a i r r o r a t a ) Agreement for the Conservation of Albatrosses and Petrels (ACAP) A B S T R A C T This paper presents an updated picture of the information available on the biology of the Waved albatross P h o e b a s t r i a i r r o r a t a and the threats the species is currently facing with particular emphasis on mortality associated with fisheries. The Waved Albatross breeds almost exclusively on Isla Española in the Galapagos Archipelago, and its at-sea distribution is restricted to the eastern Pacific Ocean mostly between the Galapagos and the adjacent mainland of South America from central Ecuador to central Peru, but occasionally ranging farther. A decrease in adult survival and a likely reduction in population size have been recently associated with increased mortality from incidental and intentional catch in fisheries. These, together with other potential threats in breeding sites, led to a recent upgrading of the species under the IUCN Red List as Critically Endangered as it is considered to be facing an extremely high risk of extinction in the wild. -
Distribution, Habitat Use, and Conservation of Albatrosses in Alaska
Suryan and Kuletz 2018, Iden 72:156-164 Published in a special issue on albatrosses in the January issue of the Japanese journal Iden: the article was submitted by invitation from members of the Yamashina Institute for Ornithology, Hokkaido University Museum, and the Editor of Iden. The article is: Robert M. Suryan and Kathy J. Kuletz. 2018. Distribution, Habitat Use, and Conservation of Albatrosses in Alaska. Iden 72:156-164. It is available online, but is in Japanese; for an English version contact [email protected] or [email protected] Distribution, Habitat Use, and Conservation of Albatrosses in Alaska Robert M. Suryan1,2 and Kathy J. Kuletz3 1Department of Fisheries and Wildlife, Oregon State University, Hatfield Marine Science Center, 2030 SE Marine Science Dr, Newport, Oregon 97365 2Auke Bay Laboratories, Alaska Fisheries Science Center, National Marine Fisheries Service, National Oceanic and Atmospheric Administration, 17109 Pt. Lena Loop Rd, Juneau, AK 99801, USA 3US Fish and Wildlife Service, 1011 E. Tudor Road, Anchorage, AK 99503, USA All three North Pacific albatross species forage in marine waters off Alaska. Despite considerable foraging range overlap, however, the three species do show broad-scale niche segregation. Short-tailed albatross (Phoebastria. albatrus) range most widely throughout Alaska, extensively using the continental shelf break and slope regions of the Bering Sea and Aleutian Archipelago in particular, and the Gulf of Alaska to a lesser extent. Due to small population size, however, short-tailed albatrosses are generally far less prevalent than the other two species. Black-footed albatrosses (P. nigripes) are most abundant in the Gulf of Alaska, and in late summer near some Aleutian passes, occupying foraging habitat similar to short-tailed albatrosses. -
An Assessment for Fisheries Operating in South Georgia and South Sandwich Islands
FAO International Plan of Action-Seabirds: An assessment for fisheries operating in South Georgia and South Sandwich Islands by Nigel Varty, Ben Sullivan and Andy Black BirdLife International Global Seabird Programme Cover photo – Fishery Patrol Vessel (FPV) Pharos SG in Cumberland Bay, South Georgia This document should be cited as: Varty, N., Sullivan, B. J. and Black, A. D. (2008). FAO International Plan of Action-Seabirds: An assessment for fisheries operating in South Georgia and South Sandwich Islands. BirdLife International Global Seabird Programme. Royal Society for the Protection of Birds, The Lodge, Sandy, Bedfordshire, UK. 2 Executive Summary As a result of international concern over the cause and level of seabird mortality in longline fisheries, the United Nations Food and Agricultural Organisation (FAO) Committee of Fisheries (COFI) developed an International Plan of Action-Seabirds. The IPOA-Seabirds stipulates that countries with longline fisheries (conducted by their own or foreign vessels) or a fleet that fishes elsewhere should carry out an assessment of these fisheries to determine if a bycatch problem exists and, if so, to determine its extent and nature. If a problem is identified, countries should adopt a National Plan of Action – Seabirds for reducing the incidental catch of seabirds in their fisheries. South Georgia and the South Sandwich Islands (SGSSI) are a United Kingdom Overseas Territory and the combined area covered by the Territorial Sea and Maritime Zone of South Georgia is referred to as the South Georgia Maritime Zone (SGMZ) and fisheries within the SGMZ are managed by the Government of South Georgia and South Sandwich Islands (GSGSSI) within the framework of the Convention on the Conservation of Antarctic Marine Living (CCAMLR). -
Identification of Infrasonic and Seismic Components of Tremors in Single
Kurokawa and Ichihara Earth, Planets and Space (2020) 72:171 https://doi.org/10.1186/s40623-020-01302-2 FULL PAPER Open Access Identifcation of infrasonic and seismic components of tremors in single-station records: application to the 2013 and 2018 events at Ioto Island, Japan Aika K. Kurokawa1* and Mie Ichihara2 Abstract Infrasonic stations are sparse at many volcanoes, especially those on remote islands and those with less frequent eruptions. When only a single infrasound station is available, the seismic–infrasonic cross-correlation method has been used to extract infrasound from wind noise. However, it does not work with intense seismicity and sometimes mistakes ground-to-atmosphere signals as infrasound. This paper proposes a complementary method to identify the seismic component and the infrasonic component using a single microphone and a seismometer. We applied the method to estimate the surface activity on Ioto Island. We focused on volcanic tremors during the phreatic eruption on April 11, 2013, and during an unconfrmed event on September 12, 2018. We used the spectral amplitude ratios of the vertical ground motion to the pressure oscillation and compared those for the tremors with those for known signals generated by volcano-tectonic earthquakes and airplanes fying over the station. We were able to identify the infrasound component in the part of the seismic tremor with the 2013 eruption. On the other hand, the tremor with the unconfrmed 2018 event was accompanied by no apparent infrasound. We interpreted the results that the infrasound with the 2013 event was excited by the vent opening or the ejection of ballistic rocks, and the 2018 event was not an explosive eruption either on the ground or in the shallow water. -
Appendix, French Names, Supplement
685 APPENDIX Part 1. Speciesreported from the A.O.U. Check-list area with insufficient evidencefor placementon the main list. Specieson this list havebeen reported (published) as occurring in the geographicarea coveredby this Check-list.However, their occurrenceis considered hypotheticalfor one of more of the following reasons: 1. Physicalevidence for their presence(e.g., specimen,photograph, video-tape, audio- recording)is lacking,of disputedorigin, or unknown.See the Prefacefor furtherdiscussion. 2. The naturaloccurrence (unrestrained by humans)of the speciesis disputed. 3. An introducedpopulation has failed to becomeestablished. 4. Inclusionin previouseditions of the Check-listwas basedexclusively on recordsfrom Greenland, which is now outside the A.O.U. Check-list area. Phoebastria irrorata (Salvin). Waved Albatross. Diornedeairrorata Salvin, 1883, Proc. Zool. Soc. London, p. 430. (Callao Bay, Peru.) This speciesbreeds on Hood Island in the Galapagosand on Isla de la Plata off Ecuador, and rangesat seaalong the coastsof Ecuadorand Peru. A specimenwas takenjust outside the North American area at Octavia Rocks, Colombia, near the Panama-Colombiaboundary (8 March 1941, R. C. Murphy). There are sight reportsfrom Panama,west of Pitias Bay, Dari6n, 26 February1941 (Ridgely 1976), and southwestof the Pearl Islands,27 September 1964. Also known as GalapagosAlbatross. ThalassarchechrysosWma (Forster). Gray-headed Albatross. Diornedeachrysostorna J. R. Forster,1785, M6m. Math. Phys. Acad. Sci. Paris 10: 571, pl. 14. (voisinagedu cerclepolaire antarctique & dansl'Ocean Pacifique= Isla de los Estados[= StatenIsland], off Tierra del Fuego.) This speciesbreeds on islandsoff CapeHorn, in the SouthAtlantic, in the southernIndian Ocean,and off New Zealand.Reports from Oregon(mouth of the ColumbiaRiver), California (coastnear Golden Gate), and Panama(Bay of Chiriqu0 are unsatisfactory(see A.O.U. -
The Winter Diet of the Great-Winged Petrel Pterodroma Macroptera at Sub-Antarctic Marion Island in 1991
Cooper & Klages: Winter diet of the Great-winged Petrel 261 THE WINTER DIET OF THE GREAT-WINGED PETREL PTERODROMA MACROPTERA AT SUB-ANTARCTIC MARION ISLAND IN 1991 JOHN COOPER1 & NORBERT T.W. KLAGES2 1Animal Demography Unit, Department of Zoology, University of Cape Town, Rondebosch, 7701, South Africa ([email protected]) 253 Clarendon Street, Mount Pleasant, Port Elizabeth, 6070, South Africa Received 11 June 2008, accepted 24 December 2008 SUMMARY COOPER, J. & KLAGES, N.T.W. 2009. The winter diet of the Great-winged Petrel Pterodroma macroptera at sub-Antarctic Marion Island in 1991. Marine Ornithology 37: 261–263. The diet of winter-breeding Great-winged Petrels Pterodroma macroptera was studied at sub-Antarctic Marion Island, Prince Edward Islands, southern Indian Ocean in August–October 1991 by multiple stomach flushing of weighed chicks after parental feeding. The Great-winged Petrel at Marion Island may be described as a cephalopod specialist, because squid formed the larger part of the diet in terms of diversity, frequency of occurrence and contribution by mass, and were the largest prey items taken. Fish and crustaceans formed relatively minor parts of the diet. These findings are broadly in accord with those of three previous quantitative studies at the same and other localities. Key words: Great-winged Petrel, Pterodroma macroptera, cephalopods, Marion Island, diet INTRODUCTION visited at irregular intervals in the evenings and later at night, and any chicks that had gained at least 10 g because of a parental feed Seabirds are important “top predators” in the Southern Ocean, and over this time period were subjected to multiple stomach-flushing. -
Relative Passage Rates of Lipid and Aqueous Digesta in the Formation of Stomach Oils
RELATIVE PASSAGE RATES OF LIPID AND AQUEOUS DIGESTA IN THE FORMATION OF STOMACH OILS DANIEL D. ROBY,• KAREN L. BRINK,2 AND ALLEN R. PLACE3 •CooperativeWildlife Research Laboratory and Department of Zoology, SouthernIllinois University, Carbondale, Illinois 62901 USA, 2P.O. Box 571, Carbondale,Illinois 62903 USA, and 3Centerof MarineBiotechnology, University of Maryland,Baltimore, Maryland 21202 USA ABSTRACT.--Weused tritium-labeled glycerol triether as a nonabsorbablelipid-phase mark- er and carbon-14labeled polyethylene glycol as a nonabsorbableaqueous-phase marker to examine gastrointestinaltransit of a homogenized fish meal fed to 4-week-old chicks of AntarcticGiant-Petrels (Macronectes giganteus) and GentooPenguins (Pygoscelis papua). Both aqueous-phaseand lipid-phase markers passedthrough the gastrointestinaltract without being metabolized.Label recoveries from the two specieswere statisticallyindistinguishable. Mean retention time was significantlylonger for lipid-phasecomponents than for aqueous- phasecomponents in both species.In the petrel, mean retention time for lipid-phaseand for aqueous-phasewas significantlylonger than in the penguin. Interspecificdifferences in retention were largely the result of differing ratesof gastricemptying. Both markersemptied rapidly from the proventriculusand gizzard of the penguins,while in giant-petrelsthe lipid- phase was retained for extended periods in the stomach.Differential transit of lipid and aqueousphases coupled with the lower rate of gastricemptying in giant-petrelchicks provides a physiologicalbasis for accumulationof dietary lipids in the proventriculus. The large, distensibleproventriculus and the ventral positionof the pyloric valve relative to the gizzard and proventriculusare morphologicaltraits which enhance the formation and retention of stomachoils. Received31 May 1988,accepted 19 December1988. OFall avian internal organs,the range of mor- (Matthews 1949, Duke et al. 1989). In other birds phologicalvariation in the stomachis the great- the much smaller proventriculus is cranial to est. -
Synthesis of Habitat Use by Black-Footed Albatross Tracked from Cordell Bank National Marine Sanctuary (2004 – 2008) and Kure Atoll Seabird Sanctuary (2008)
Revised FINAL Report to NOAA Synthesis of Habitat Use by Black-footed Albatross tracked from Cordell Bank National Marine Sanctuary (2004 – 2008) and Kure Atoll Seabird Sanctuary (2008) January 30, 2012 David Hyrenbach1,2, Michelle Hester1, Joshua Adams3, Pam Michael1,2, Cynthia Vanderlip4, Carol Keiper1, and Michael Carver5 1 Oikonos Ecosystem Knowledge, P.O. Box 1932, Benicia, CA 94510; [email protected] 2 Hawai’i Pacific University, 41-202 Kalaniana’ole Hwy, Waimanalo, HI 96795 3 U.S. Geological Survey, Western Ecological Research Center, Pacific Coastal & Marine Science Center, Santa Cruz, CA 95060 4 State of Hawai’i, Dept. of Land & Natural Resources, Div. of Forestry and Wildlife, Makiki, Honolulu, HI 96822 5 Cordell Bank National Marine Sanctuary, P.O. Box 159, Olema, CA 94950 SUMMARY Oikonos Ecosystem Knowledge, working with state and federal resource managers and university partners tracked the oceanic distribution and behavior of post-breeding and chick provisioning Black-footed Albatross (BFAL, Phoebastria nigripes) tagged at-sea within the Cordell Bank National Marine Sanctuary (CBNMS) and on the Kure Atoll colony within the Papahānaumokuākea Marine National Monument (PMNM) over a four year period (2004, 2005, 2007, 2008). The overarching goal of this project was to summarize the existing information to inform the management of this far-ranging protected species, in the context of static oceanic habitats (bathymetric domains and features), existing jurisdictions (U.S. National Marine Sanctuaries (NMS) and Marine Monuments), and international exclusive economic zones (E.E.Z.). INTRODUCTION The conservation status of North Pacific albatross populations warrants comprehensive efforts to understand their ecological requirements and to develop strategies to minimize the impacts of known and potential threats. -
BYC-08 INF J(A) ACAP: Update on the Conservation Status
INTER-AMERICAN TROPICAL TUNA COMMISSION SCIENTIFIC ADVISORY COMMITTEE NINTH MEETING La Jolla, California (USA) 14-18 May 2018 DOCUMENT BYC-08 INF J(a) UPDATE ON THE CONSERVATION STATUS, DISTRIBUTION AND PRIORITIES FOR ALBATROSSES AND LARGE PETRELS Agreement on the Conservation of Albatrosses and Petrels (ACAP) and BirdLife International 1. STATUS AND TRENDS OF ALBATROSSES AND PETRELS Seabirds are amongst the most globally-threatened of all groups of birds, and conservation issues specific to albatrosses and large petrels led to drafting of the multi-lateral Agreement on the Conservation of Albatrosses and Petrels (ACAP). A review of the conservation status and priorities for albatrosses and large petrels was recently published in Biological Conservation (Phillips et al. 2016). There are currently 31 species listed in Annex 1 of the Agreement. Of these, 21 (68%) are classified at risk of extinction, a stark contrast to the overall rate of 12% for the 10,694 bird species worldwide (Croxall et al. 2012, Gill & Donsker 2017). Of the 22 species of albatrosses listed by ACAP, three are listed as Critically Endangered (CR), six are Endangered (EN), six are Vulnerable (VU), six are Near Threatened (NT), and one is of Least Concern (LC). Of the nine petrel species, one is listed as CR, one as EN, four as VU, one as NT and two species as LC. The population trends of ACAP species over the last twenty years (since the mid-1990s) were re-examined in 2017 by the ACAP Population and Conservation Status Working Group (PaCSWG). Thirteen ACAP species (42%) are currently showing overall population declines. -
Feeding Ecology of Short-Tailed Shearwaters: Breeding in Tasmania and Foraging in the Antarctic?
MARINE ECOLOGY PROGRESS SERIES Published June 18 Mar Ecol Prog Ser l Feeding ecology of short-tailed shearwaters: breeding in Tasmania and foraging in the Antarctic? Henri Weimerskirch*, Yves Cherel CEBC - CNRS, F-79360 Beauvoir, France ABSTRACT- The food, feedlng and physiological ecology of foraging were studied in the short-tailed shearwater Puffinus tenujrostris of Tasmania, to establish whether this species can rely on Antarctic food to fledge its chick. Parents were found to use a 2-fold foraging strategy, on average performing 2 successive short trips at sea of 1 to 2 d duration followed by 1 long trip of 9 to 17 d. These long foraging tnps are the longest yet recorded for any seabird. During short trips the parents tend to lose mass, feed- ing the chick with Australian krill and fish larvae caught in coastal and neritic waters around Tasma- nia. The prey are caught at maximum diving depths of 13 m on average (maximum 30 m).During long trips, adults gain mass and feed their chlcks with a very rich mixture of stomach oil and digested food composed of a high diversity of prey including myctophid fish, sub-Antarctic krill and squids. Prey are probably caught mainly in the Polar Frontal Zone, at least 1000 km south of Tasmania, at maximum depths of 58 m on average (maximum 71 m). Long foraging trips in distant southern waters gave at least twice the yield of trips in close waters but during the former, yield decreased with the time spent for- aging, as indicated by the inverse relationship between time spent forag~ngand adult body condition.