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Procellariiformes (1 Viewer)

Gould’s Petrel

David Priddel, Nicholas Carlile, Dean Portelli, Yuna Kim, Lisa O'Neill, Vincent Bretagnolle, Lisa T. Ballance, Richard A. Phillips, Robert L. Pitman and Matt J. Rayner. Pelagic distribution of Gould’s Petrel (Pterodroma leucoptera): linking shipboard and onshore observations with remote-tracking data. Emu - Austral Ornithology, Published online 03 November 2014.

[Abstract]
 
Any news on identity of extinct British and Swedish populations of Pterodroma petrels Pterodroma 'britanica' and Pterodroma 'scandinavica'?
 
TiF Update November 22

Procellariiformes: I've adjusted the family sequence to match Prum et al. (2015). This includes merging the diving-petrels into Procellariidae. Procellariidae has been resequenced using Prum et al. (2015) as a backbone. Finally, Subantarctic Shearwater, Puffinus elegans has been split from Little Shearwater, Puffinus assimilis.
 
Hydrobatinae

S.J. Wallace, J.A. Morris-Pocock, J. González-Solís, P. Quillfeldt, V.L. Friesen. A phylogenetic test of sympatric speciation in the Hydrobatinae (Aves: Procellariiformes). Molecular Phylogenetics and Evolution, In Press, Accepted Manuscript, Available online 29 September 2016.

[abstract]
 
Gould's Petrel

Iglesias-Vasquez A., Gangloff B., Ruault S., Ribout C., Priddel D. Carlile N., Friesen V.L., Cibois A. & Bretagnolle V., in press. Population expansion, current and past gene flow in Gould’s Petrel: implications for conservation. Conserv. Genet.

Abstract: Seabird life-history traits such as long generation time, low annual fecundity and delayed sexual maturation make them more prone to population loss and consequently to extinction; petrels are indeed amongst the most threatened birds. Based on coalescence and multiloci inference this study examines the extent of genetic differentiation of a vulnerable New Caledonia (caledonica) and Australia (leucoptera) subspecies of Pterodroma leucoptera (Gould’s Petrel), and whether the genetic relationship between them results from the influence of past events like variation in sea level, or is dominated by contemporary gene flow. Sequences of two mitochondrial genes and five nuclear introns were obtained from 86 individuals from both populations. Haplotype networks were used to infer relationships between the haplotypes of both populations. The demographic history of the P. leucoptera complex was studied using neutrality tests and Extended Bayesian Skyline Plots. A weak population differentiation was revealed. The Extended Bayesian Skyline plot suggested a population expansion approximately 80,000 years before present (bp) for caledonica and 30,000 years bp for leucoptera. The split was dated to 30,000 years bp by means of multilocus inference through *BEAST. Despite genetic similarity of the two taxa, we advocate to consider them as independent units for conservation management, given their strong ecological distinctiveness (foraging distribution, winter distribution, breeding phenology and breeding distribution).
 
Pterodroma solandri

Lombal, Wenner, Carlile, Austin, Woehler, Priddel, Burridge. 2017. Population genetic and behavioural variation of the two remaining colonies of Providence petrel (Pterodroma solandri). Conserv Genet 18:117–129.
[abstract & supp mat] [pdf]
 
Gould’s Petrel

Portelli, DJ, 2016. Plumage variation in Gould’s petrel (Pterodroma leucoptera): an evaluation of the taxonomic validity of P. l. caledonica (Imber & Jenkins 1981). Notornis 63: 3-4, pp. 130-141.

Abstract:

Gould’s petrel, Pterodroma leucoptera, comprises 2 subspecies: P. l. leucoptera that breeds in eastern Australia, and P. l. caledonica that breeds in New Caledonia. The latter subspecies was diagnosed primarily on the basis of plumage differences observed between beachcast specimens from New Zealand (presumed to be P. l. caledonica) and a small sample of specimens from Cabbage Tree Island in Australia. This study re-examined the diagnosis of P. l. caledonica by quantifying plumage variation in both subspecies using live individuals and museum specimens originating from breeding colonies. Variation in supposedly diagnostic plumage characters within the larger sample of the nominate subspecies encompassed almost the entire variation observed in P. l. caledonica; though the former tended to be more heavily pigmented. Given the lack of valid diagnostic characters, the retention of P. l. caledonica as a distinct taxon is difficult to justify. Gould’s petrel should therefore be treated as monotypic.

Pterodroma leucoptera caledonica is recognized by IOC7.1, ClementsV2016, H&M4 and also by HBW/BL illustrated checklist.
 
Settling the name Diomedea exulans Linnaeus, 1758 for the Wandering Albatross by neotypification
RICHARD SCHODDE, ALAN J.D. TENNYSON, JEFF G. GROTH, JONAS LAI, PAUL SCOFIELD, FRANK D. STEINHEIMER

Abstract

On-going conflict in use of the name Diomedea exulans Linnaeus, 1758 for different taxa of the great albatrosses (Wandering Albatross complex) is resolved by neotypification, fixing the name to the large subantarctic form formerly often known as D. chionoptera Salvin, 1896. Application of all scientific names in the complex is reviewed, an annotated synonymy for the large subantarctic form is provided, available names for smaller, temperate-zone forms are listed, and unavailable and otherwise invalid names referable to the complex are identified. Syntypes of D. chionoptera and D. spadicea J.F. Gmelin, 1789 are lectotypified as well, fixing their names as synonyms of D. exulans to prevent possible disturbance to in-use names for the smaller, temperate-zone forms.



Keywords

Aves, nomenclature, neotypification, albatross, Diomedea exulans, Diomedeidae

http://www.mapress.com/j/zt/article/view/zootaxa.4236.1.7
 
Grey-faced Petrel

Bourgeois, Dromzée, Welch, Russell. 2017. Sex and geographic variation in Grey-Faced Petrel (Pterodroma gouldi) morphometrics. Waterbirds 40(2):144-153.
[abstract]


BTW:
Portelli, DJ, 2016. Plumage variation in Gould’s petrel (Pterodroma leucoptera): an evaluation of the taxonomic validity of P. l. caledonica (Imber & Jenkins 1981). Notornis 63: 3-4, pp. 130-141.
[pdf here]
 
Pterodroma

Booth Jones K.A., Nicoll M.A.C., Raisin C., Dawson D.A., Hipperson H., Horsburgh G.J., Groombridge J.J., Ismar S.M.H., Sweet P., Jones C.G., Tatayah V., Ruhomaun K. & Norris K., in press. Widespread gene flow between oceans in a pelagic seabird species complex. Mol. Ecol.

Abstract
 
Ardenna carneipes

Lombal, A.J., Wenner, T.J., Lavers, J.L. et al. Genetic divergence between colonies of Flesh-footed Shearwater Ardenna carneipes exhibiting different foraging strategies. Conserv Genet (2018) 19: 27. https://doi.org/10.1007/s10592-017-0994-y

Abstract:

Increasing evidence suggests foraging segregation as a key mechanism promoting genetic divergence within seabird species. However, testing for a relationship between population genetic structure and foraging movements among seabird colonies can be challenging. Telemetry studies suggest that Flesh-footed Shearwater Ardenna carneipes that breed at Lord Howe Island or New Zealand, versus southwestern Australia or Saint-Paul Island in the Indian Ocean, migrate to different regions (North Pacific Ocean and northern Indian Ocean, respectively) during the non-breeding season, which may inhibit gene flow among colonies. In this study, we sequenced a 858-base pair mitochondrial region and seven nuclear DNA fragments (352–654 bp) for 148 individuals to test genetic differentiation among colonies of Flesh-footed Shearwaters. Strong genetic divergence was detected between Pacific colonies relative to those further West. Molecular analysis of fisheries’ bycatch individuals sampled in the Sea of Japan indicated that individuals from both western and eastern colonies were migrating through this area, and hence the apparent segregation of the non-breeding distribution based on telemetry is invalid and cannot contribute to the population genetic structure among colonies. The genetic divergence among colonies is better explained by philopatry and evidence of differences in foraging strategies during the breeding season, as supported by the observed genetic divergence between Lord Howe Island and New Zealand colonies. We suggest molecular analysis of fisheries’ bycatch individuals as a rigorous method to identify foraging segregation, and we recommend the eastern and western A. carneipes colonies be regarded as different Management Units.
 
Barau's Petrel

Brammer, F.E., E.C. Dickinson, A. Harding & C. Voisin. Establishing the precedence between two published 1964 descriptions of a new seabird. Zoological Bibliography, Pp. 1-2. Vol. 6, No. 1 (9 March 2018).

[pdf]
 

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