Birdlife Australia Rarities Committee Unusual Record Report Form
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
First Record of a Broad-Billed Prion Pachyptila Vittata at Coronation Island, South Orkney Islands
Blight & Woehler: First record of a Broad-billed Prion at Coronation Island 191 FIRST RECORD OF A BROAD-BILLED PRION PACHYPTILA VITTATA AT CORONATION ISLAND, SOUTH ORKNEY ISLANDS LOUISE K. BLIGHT1,2 & ERIC J. WOEHLER3 1Procellaria Research and Consulting, 944 Dunsmuir Road, Victoria, British Columbia, V9A 5C3, Canada 2Current address: Centre for Applied Conservation Research, University of British Columbia, Vancouver, British Columbia, V6T 1Z4, Canada ([email protected]) 3School of Zoology, University of Tasmania, Hobart, Tasmania, 7005, Australia Received 15 April 2008, accepted 2 August 2008 The known breeding distribution of Broad-billed Prions Pachyptila or as a bird blown out of its normal at-sea range by strong winds vittata is restricted to Tristan da Cunha and Gough Islands in the during poor weather. Alternatively, there may be low numbers of South Atlantic Ocean and to offshore islands around New Zealand Broad-billed Prions breeding at poorly-surveyed sub-Antarctic and the Snares and Chatham Islands, with the range at sea believed colonies, such as the South Orkney Islands. Antarctic Prions are one to extend to coastal South Africa in the South Atlantic Ocean and of the most numerous seabird species in the Antarctic (Marchant & near-shore waters around New Zealand (Marchant & Higgins 1990). Higgins 1990); they nest in the South Orkney Islands (Marchant & The taxonomy of prions remains controversial, with most authors Higgins 1990). It is possible that low numbers of breeding Broad- recognising up to six species, but varying numbers of subspecies. billed Prions have been overlooked amongst their congeners. The at-sea ranges of many Southern Ocean seabird species are Although no sympatric breeding sites are known for the two species still incompletely described, with relatively few surveys obtaining (Shirihai 2002) and the presence of this bird may have been an at-sea data for prions. -
DIET and ASPECTS of FAIRY PRIONS BREEDING at SOUTH GEORGIA by P.A
DIET AND ASPECTS OF FAIRY PRIONS BREEDING AT SOUTH GEORGIA By P.A. PRINCE AND P.G. COPESTAKE ABSTRACT A subantarctic population of the Fairy Prion (Pachyprzla turtur) was studied at South Georgia in 1982-83. Full measurements of breeding birds are given, together with details of breeding habitat, the timing of the main breeding cycle events, and chick growth (weight and wing, culmen and tarsus length). Regurgitated food samples showed the diet to be mainly Crustacea (96% by weight), fish and squid comprising the rest. Of crustaceans, Antarctic krill made up 38% of items and 80% by weight. Copepods (four species, mostly Rhincalanus gigas) made up 39% of items but only 4% by weight; amphipods [three species, principally Themisto gaudichaudii made up 22% of items and 16% by weight. Diet and frequency of chick feeding are compared with those of Antarctic Prions and Blue Petrels at the same site; Fairy Prions are essentially intermediate. INTRODUCTION The Fairy Prion (Pachyptila turtur) is one of six members of a genus confined to the temperate and subantarctic regions of the Southern Hemisphere. With the Fulmar Prion (P. crassirostris), it forms the subgenus Pseudoprion. Its main area of breeding distribution is between the Antarctic Polar Front and the Subtropical Convergence. It is widespread in the New Zealand region, from the north of the North Island south to the Antipodes Islands and Macquarie Island, where only about 40 pairs survive (Brothers 1984). Although widespread in the Indian Ocean at the Prince Edward, Crozet and Kerguelen Islands, in the South Atlantic Ocean it is known to breed only on Beauchene Island (Falkland Islands) (Strange 1968, Smith & Prince 1985) and South Georgia (Prince & Croxall 1983). -
Krill Caught by Predators and Nets: Differences Between Species and Techniques
MARINE ECOLOGY PROGRESS SERIES Vol. 140: 13-20. 1996 Published September 12 Mar Ecol Prog Ser Krill caught by predators and nets: differences between species and techniques K. Reid*, P. N. Trathan, J. P. Croxall, H. J. Hill British Antarctic Survey, Natural Environment Research Council, High Cross. Madingley Road, Cambridge CB3 OET, United Kingdom ABSTRACT. Samples of Antarchc krill collected from 6 seabird species and Antarctic fur seal dunng February 1986 at South Georgia were compared to krill from scientific nets fished in the area at the same time. The length-frequency d~stributionof krill was broadly similar between predators and nets although the krill taken by diving species formed a homogeneous group wh~chshowed significant dif- ferences from knll taken by other predators and by nets There were significant differences In the maturity/sex stage composition between nets and predators; in particular all predator species showed a consistent sex bias towards female krill. Similarities in the knll taken by macaroni [offshore feeding) and gentoo (inshore feeding) penguins and differences between krill taken by penguins and alba- trosses suggest that foraging techniques were more important than foraging location in influencing the type of krill in predator diets. Most krill taken by predators were adult; most female krill were sexually active (particularly when allowance is made for lnisclassification bias arising from predator digestion). Because female krill are larger, and probably less manouverable, than males, the biased sex ratio In predator diets at thls t~meof year may reflect some comblnat~onof selectivity by predators and superior escape responses of male krill. -
The Skull of a Fossil Prion (Aves: Procellariiformes) from the Neogene (Late Miocene) of Northern Chile Andean Geology, Vol
Andean Geology ISSN: 0718-7092 [email protected] Servicio Nacional de Geología y Minería Chile Sallaberry, Michel; Rubilar-Rogers, David; Suárez, Mario E.; Gutstein, Carolina S. The skull of a fossil Prion (Aves: Procellariiformes) from the Neogene (Late Miocene) of northern Chile Andean Geology, vol. 34, núm. 1, enero, 2007, pp. 147-154 Servicio Nacional de Geología y Minería Santiago, Chile Available in: http://www.redalyc.org/articulo.oa?id=173918593008 How to cite Complete issue Scientific Information System More information about this article Network of Scientific Journals from Latin America, the Caribbean, Spain and Portugal Journal's homepage in redalyc.org Non-profit academic project, developed under the open access initiative PALEONTOLOGICAL NOTE The skull of a fossil Prion (Aves: Procellariiformes) from the Neogene (Late Miocene) of northern Chile Michel Sallaberry Laboratorio de Zoología de Vertebrados, Universidad de Chile, Facultad de Ciencias, David Rubilar-Rogers Las Palmeras 3425, Ñuñoa, Santiago [email protected] [email protected] Mario E. Suárez Museo Paleontológico de Caldera, Av. Wheelwrigh 001, Caldera, Chile Carolina S. Gutstein [email protected] [email protected] ABSTRACT The fossil skull of a procellariid, Pachyptila sp., from Late Miocene marine sediments of the Bahía Inglesa Formation (Midde Miocene-Pliocene) of Northern Chile is described. The fossil is compared with extant species of the family Procellariidae. This discovery represents the first Neogene fossil record of the genus Pachyptila from South America. Key words: Fossil Prion, Pachyptila, Procellariiformes, Neogene, Chile. RESUMEN El cráneo de un Petrel-paloma fósil (Aves: Procellariiformes) del Neógeno (Mioceno Tardío) del norte de Chile. Se describe un cráneo fósil de un procelláriido, Pachyptila sp., proveniente de sedimentos marinos del Mioceno Tardío de la Formación Bahía Inglesa (Mioceno Medio-Plioceno) del norte de Chile. -
Spatial Segregation of Prions and Blue Petrels Is Explained by Differences in Preferred Sea Surface Temper
Animal behaviour Cool, cold or colder? Spatial segregation rsbl.royalsocietypublishing.org of prions and blue petrels is explained by differences in preferred sea surface temperatures Research 1 2 2 2 Cite this article: Quillfeldt P, Cherel Y, Delord Petra Quillfeldt , Yves Cherel , Karine Delord and Henri Weimerkirch K, Weimerkirch H. 2015 Cool, cold or colder? 1Department of Animal Ecology and Systematics, Justus-Liebig-Universita¨t Giessen, 35392 Giessen, Germany Spatial segregation of prions and blue petrels 2Centre d’Etudes Biologiques de Chize´, UMR 7372 CNRS-Universite´ de La Rochelle, 79360 Villiers-en-Bois, France is explained by differences in preferred sea surface temperatures. Biol. Lett. 11: 20141090. The Southern Ocean provides one of the largest environmental gradients on http://dx.doi.org/10.1098/rsbl.2014.1090 Earth that lacks geographical barriers, and small but highly mobile petrels living there may offer fine models of evolution of diversity along environmental gradients. Using geolocation devices, we investigated the winter distribution of closely related petrel species breeding sympatrically in the southern Indian Received: 31 December 2014 Ocean, and applied ecological niche models to compare environmental con- ditions in the habitat used. We show that thin-billed prions (Pachyptila Accepted: 27 March 2015 belcheri), Antarctic prions (Pachyptila desolata) and blue petrels (Halobaena caerulea) from the Kerguelen archipelago in the southern Indian Ocean segre- gate latitudinally, sea surface temperature being the most important variable separating the distribution of the species. Antarctic prions spent the winter Subject Areas: north of the Polar Front in temperate waters, whereas blue petrels were ecology, behaviour found south of the Polar Front in Antarctic waters. -
1 Spatial Distribution of Predator/Prey Interactions in the Scotia
Spatial distribution of predator/prey interactions in the Scotia Sea: implications for measuring predator/ fisheries overlap. Keith Reid 1*, Michelle Sims 1, Richard W. White 2,3, Keith W. Gillon 2,3 1 British Antarctic Survey, Natural Environment Research Council, High Cross, Madingley Road, Cambridge, CB3 OET, United Kingdom. 2 Falklands Conservation, Jetty Visitor Centre, Stanley, Falklands Islands. 3 Joint Nature Conservancy Committee, Monkstone House, City Road. Peterborough, PE1 1JY * Correspondence - email [email protected] Fax +44 1223 221259 1 Abstract The measurement of spatial overlap between predators and fisheries exploiting a common prey source is dependent upon the measurement scale used and the use of inappropriate scales may provide misleading results. Previous assessments of the level of overlap between predators and fisheries for Antarctic krill Euphausia superba in the South Shetland Islands have used different measurement scales and arrives at contradictory conclusions. At-sea data from observations of krill predators during the CCAMLR 2000 krill survey were used to identify the areas of potential overlap with fisheries in the Scotia Sea and to determine the scale at which such overlap should be measured. The relationship between auto-correlation and sampling distance was used to identify the characteristic scales of the distribution of predators, krill and krill fisheries and an effort- corrected index of relative abundance as a function of distance from land was used to identify the characteristics of areas of high potential for overlap. Despite distinct differences in foraging ecology a group of krill-dependent species including chinstrap penguin Pygoscelis antarctica, (Antarctic) fur seal Arctocephalus sp. -
Salvin's Prion Pachyptila Salvini Captured Alive on Beach at Black Rocks, Victoria, 27Th July 1974
1 Salvin’s Prion Pachyptila salvini captured alive on beach at Black Rocks, Victoria, 27th July 1974 by Mike Carter Fig. 1. Ailing Salvin’s Prion captured alive on beach at Black Rocks, Victoria, 27 July 1974 During a gale on 27th July 1974, a Salvin’s Prion was observed flying over the breakers just beyond the rocks on the beach at Black Rocks, Victoria. Obviously debilitated, it came ashore and sought refuge in rock pools. It was rescued but died within five hours. This observation was made by a group of local and international seabird enthusiasts that included Dr Bill Bourne (from the UK), Gavin Johnstone & Noels Kerry from the Australian Antarctic Division, Peter Menkhorst, Richard Loyn, Paul Chick and me. Overseas and interstate visitors had joined locals to attend an International Ornithological Congress in Melbourne. The attached photos are recent digital copies of transparencies taken immediately after capture. Dimensions in mm measured as described in Marchant & Higgins (1990) on 29-07-74. (L = left, R = right), Wing 191; Tail 94; Tarsus (L) 36.4, (R) 35.9; Middle toe (L) 45.2, (R) 45.7; Claw (L) 8.8, (R) 8.0. Culmen (C) 31.8; Width (W) 16.4; Ratio (C)/ (W) 1.94: Bill depth max 13.2; Bill depth min 7.2. Apparent bulk = 1/4CW(BDmax+BDmin) = 2661 cub mm. I find this generated number to be a good discriminator for identifying Victorian prion corpses. 2 Figs. 2 to 5. Ailing Salvin’s Prion captured alive on beach at Black Rocks, Victoria, 27 July 1974 Identification Identification at the time was based mainly on information in Serventy, Serventy & Warham (1971). -
Master Wildlife List-Peninsula
Antarctic Peninsula Expedition Wildlife List Date Family Species Twitcher List 8-Mar 9-Mar 10-Mar 11-Mar 12-Mar 13-Mar 14-Mar 15-Mar 16-Mar 17-Mar Adelie X X Chinstrap X X X X X X Emperor Penguins Gentoo X X X X X X X Macaroni X X Magellanic X X Unidentifed X X X Black-browed X X X X X Grey-headed X X X X Light-mantled Sooty X X Albatross Northern Royal X X X Southern Royal X X X Wandering X X X Northern X X X X Southern X X X X X X X Giant Petrel Southern (white morph) X X X Unidentified Soft-plumaged Petrel X X X X Gadfly Petrels Soft-plumaged Petrel (Dark) X X Antarctic Petrel Cape Petrel X X X X X X Snow Petrel ? ? Petrels Southern Fulmar X X X X White-chinned Petrel X X X Grey Petrel Great Shearwater X X Shearwaters Sooty Shearwater X X X X Blue Petrel Antarctic Prion X X X X BIRDS Blue Petrels & Prions Fairy Prion Slender-billed Prion X X Unidentified Black-bellied X X X X Grey-backed Storm-petrels Wilson’s X X X X X X X X Unidentified Common Diving-petrels Magellanic Unidentified X X X Antarctic Shag X X X X X X Shags Imperial Shag X X Rock Shag X X Chilean Skua X X South Polar Skua X X X X X X Skuas Subantarctic Skua X X X X X X Unidentified X X Brown-hooded Gull X X Gulls Dolphin Gull X X Kelp Gull X X X X X X X Antarctic X X X X X Terns Arctic South American Blk-crowned Night Heron Blackish Oystercatcher Shorebirds Magellanic Oystercatcher Magellanic Snipe Pale-faced Sheathbill X X X X Other Arnoux's Beaked Blue Cuvier's Beaked Fin Whale Hector's Beaked Humpback X X X Long-finned Pilot Whales Minke X X X X Sei X X X X Southern Bottlenose Southern Right Sperm Beaked (sp.) X X MAMMALS Unidentified Dusky Hourglass X X Orca (Killer Whale) X X Dolphins Peale’s X X Other Unidentified Crabeater X X X X X Leopard X X X X Phocids Southern Elephant X X X Weddell X X X X Antarctic Fur Seal X X X X X Otariids South American Fur Seal South American Sealion OTHER Chilean swallow X X Salp X 8-Mar 9-Mar 10-Mar 11-Mar 12-Mar 13-Mar 14-Mar 15-Mar 16-Mar 17-Mar Twitcher List Date www.oneoceanexpedi,ons.com. -
Olfactory Foraging by Antarctic Procellariiform Seabirds: Life at High Reynolds Numbers
Reference: Biol. Bull. 198: 245–253. (April 2000) Olfactory Foraging by Antarctic Procellariiform Seabirds: Life at High Reynolds Numbers GABRIELLE A. NEVITT Section of Neurobiology, Physiology and Behavior, University of California, Davis, California 95616 Abstract. Antarctic procellariiform seabirds forage over (Chelonia mydas) nesting on Ascension Island in the middle vast stretches of open ocean in search of patchily distributed of the Atlantic Ocean are guided there from feeding grounds prey resources. These seabirds are unique in that most off the coast of South America, presumably by a redundant species have anatomically well-developed olfactory systems set of mechanisms that possibly includes an ability to smell and are thought to have an excellent sense of smell. Results their island birth place (for review, see Lohmann, 1992). from controlled experiments performed at sea near South To explain such behaviors, it is commonly assumed that Georgia Island in the South Atlantic indicate that different animals are able to recognize and follow odors emanating species of procellariiforms are sensitive to a variety of from a distant source. This logic predicts that a recognizable scented compounds associated with their primary prey. odor signature emanates from a site, forming a gradient that These include krill-related odors (pyrazines and trimethyl- can be detected thousands of kilometers away. By some amine) as well as odors more closely associated with phy- adaptive behavioral mechanism such as turning or swim- toplankton (dimethyl sulfide, DMS). Data collected in the ming upstream in response to the odor cue, the animal context of global climatic regulation suggest that at least focuses its directional movement to locate the source of the one of these odors (DMS) tends to be associated with odor plume. -
Breeding Colonies Distribution for Fulmar Prion Lineage.Docx
To view this as a map and many more go to: www.nabis.govt.nz web mapping tool Type the map name into: Search for a map layer or place Lineage – Scientific methodology Breeding distribution of Fulmar prion 1. A “breeding colony” for New Zealand seabirds is defined as “any location where breeding has been reported and is considered by the expert compiling the species account to have occurred at that location at least until 1998”. 2. An “occasional breeding colony” for New Zealand seabirds is defined as “any location where breeding has been reported, but not necessarily continuously nor during consecutive breeding seasons, and is considered by the expert compiling the species account to have occurred at that location during the last 30 years”. 3. Literature sources were searched for breeding distribution information. a. Scientific papers, published texts, unpublished reports and university theses available to the expert who prepared the distributional layers. b. Aquatic Sciences and Fisheries Abstracts 1960-2010. c. OSNZ News and Southern Bird for 1977–2010. 4. Other sources. a. Nil. 5. All breeding colonies of fulmar prions are mapped according to written descriptions of their locations. The locations of the Chatham and Auckland Islands colonies are taken from the descriptions in Taylor (2000), those of the Bounty Islands from Robertson & van Tets (1982), and those of the Snares Western Chain colonies from Miskelly (1984). The colonies have not been surveyed for mapping purposes, and the mapping presented is based on the written descriptions of their locations. 6. Summary a. An expert scientist integrated information from the literature and expert opinion, and produced hand-drawn distributional zones on a template map. -
Amphipod-Based Food Web: Themisto Gaudichaudii Caught in Nets and by Seabirds in Kerguelen Waters, Southern Indian Ocean
MARINE ECOLOGY PROGRESS SERIES Vol. 223: 261–276, 2001 Published November 28 Mar Ecol Prog Ser Amphipod-based food web: Themisto gaudichaudii caught in nets and by seabirds in Kerguelen waters, southern Indian Ocean Pierrick Bocher1, 2, Yves Cherel1,*, Jean-Philippe Labat3, Patrick Mayzaud3, Suzanne Razouls4, Pierre Jouventin1, 5 1Centre d’Etudes Biologiques de Chizé, UPR-CNRS 1934, 79360 Villiers-en-Bois, France 2Laboratoire de Biologie et Environnement Marins, EA 1220 de l'Université de La Rochelle, 17026 La Rochelle Cedex, France 3Laboratoire d'Océanographie Biochimique et d’Ecologie, ESA 7076-CNRS/UPMC LOBEPM, Observatoire Océanologique, BP 28, 06230 Villefranche-sur-Mer, France 4Observatoire Océanologique, UMR-CNRS/UPMC 7621, Laboratoire Arago, 66650 Banyuls-sur-Mer, France 5Centre d’Ecologie Fonctionnelle et Evolutive, UPR-CNRS 9056, 1919 Route de Mende, 34293 Montpellier Cedex 5, France ABSTRACT: Comparing food samples from diving and surface-feeding seabirds breeding in the Golfe du Morbihan at Kerguelen Islands to concurrent net samples caught within the predator forag- ing range, we evaluated the functional importance of the hyperiid amphipod Themisto gaudichaudii in the subantarctic pelagic ecosystem during the summer months. T. gaudichaudii occurred in high densities (up to 61 individuals m-3) in the water column, being more abundant within islands in the western part of the gulf than at open gulf and shelf stations. The amphipod was a major prey of all seabird species investigated except the South Georgian diving petrel, accounting for 39, 80, 68, 59 and 46% of the total number of prey of blue petrels, thin-billed prions, Antarctic prions, common div- ing petrels and southern rockhopper penguins, respectively. -
Appendix D New Zealand Conservation Status And
Appendix D New Zealand conservation status and International Union for Conservation of Nature (IUCN) ‘Red List’ threat classification of seabirds mentioned in the report and additionally in Paragraphs 12, 23 and 24 of my evidence. New Zealand conservation status is taken from Robertson et al. (2013), and ‘Red List’ classification from http://www.iucnredlist.org/, where further information regarding categories and criteria employed by the two systems can be found. Taxa marked * were referred to in general, non-specific terms in the report (for example, northern royal albatross here was referred to as ‘unidentified royal albatross’ in the report), but are included here as species for completeness. Taxa are listed in the order they appear in the report, then in the order they appear in Paragraphs 12, 23 and 24 of my evidence. Taxa NZ Conservation Status Red List classification Wandering albatross Migrant Vulnerable Northern royal albatross* At Risk – Naturally Uncommon Endangered Southern royal albatross* At Risk – Naturally Uncommon Vulnerable Antipodean albatross Threatened – Nationally Critical Vulnerable Gibson’s albatross Threatened – Nationally Critical Vulnerable Black-browed albatross Coloniser Near Threatened Campbell albatross At Risk - Naturally Uncommon Vulnerable Grey-headed albatross Threatened – Nationally Vulnerable Endangered Southern Buller’s albatross At Risk - Naturally Uncommon Near Threatened Salvin’s albatross Threatened – Nationally Critical Vulnerable Northern giant petrel* At Risk - Naturally Uncommon Least Concern