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Charadriiformes

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Shorebirds
Temporal range: Eocene[1][2][3] -Holocene, 55–0 Ma Possible an early origin based on molecular clock[4][5]
Alca tordaCalidris subminutaCharadrius dubiusBurhinus bistriatusHaematopus bachmaniActophilornis africanusLarus michahellisStercorarius antarcticusIbidorhyncha struthersii
Several members of the order
Scientific classification Edit this classification
Domain: Eukaryota
Kingdom: Animalia
Phylum: Chordata
Class: Aves
Infraclass: Neognathae
Clade: Neoaves
Order: Charadriiformes
Huxley, 1867
Families

See text.

Charadriiformes (/kəˈrædri.ɪfɔːrmiːz/, from Charadrius, the type genus of family Charadriidae) is a diverse order of small to medium-large birds. It includes about 390 species and has members in all parts of the world. Most charadriiform birds live near water and eat invertebrates or other small animals; however, some are pelagic (seabirds), others frequent deserts, and a few are found in dense forest. Members of this group can also collectively be referred to as shorebirds.

Taxonomy, systematics and evolution

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The order was formerly divided into three suborders:

  • The waders (or "Charadrii"): typical shorebirds, most of which feed by probing in the mud or picking items off the surface in both coastal and freshwater environments.
  • The gulls and their allies (or "Lari"): these are generally larger species which take fish from the sea. Several gulls and skuas will also take food items from beaches, or rob smaller species, and some have become adapted to inland environments.
  • The auks (or "Alcae") are coastal species which nest on sea cliffs and "fly" underwater to catch fish.

The Sibley-Ahlquist taxonomy lumps all the Charadriiformes together with other seabirds and birds of prey into a greatly enlarged order Ciconiiformes. However, the resolution of the DNA-DNA hybridization technique used by Sibley & Ahlquist was not sufficient to properly resolve the relationships in this group, and indeed it appears as if the Charadriiformes constitute a single large and very distinctive lineage of modern birds of their own.[6]

The auks, usually considered distinct because of their peculiar morphology, are more likely related to gulls, the "distinctness" being a result of adaptation for diving.[7]

Families

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The order Charadriiformes contains 3 suborders, 19 families and 391 species.[8][9]

Charadriiformes
Charadrii

Burhinidae – stone-curlews, thick-knees (10 species)

Pluvianellidae – Magellanic plover

Chionidae – sheathbills (2 species)

Pluvianidae – Egyptian plover

Charadriidae – plovers (69 species)

Recurvirostridae – stilts, avocets (10 species)

Ibidorhynchidae – ibisbill

Haematopodidae – oystercatchers (12 species)

Scolopaci

Scolopacidae – sandpipers, snipes (98 species)

Rostratulidae – painted-snipes (3 species)

Jacanidae – jacanas (8 species)

Pedionomidae – plains-wanderer

Thinocoridae – seedsnipes (4 species)

Lari

Turnicidae – buttonquails (18 species)

Dromadidae – crab-plover

Glareolidae – coursers, pratincoles (17 species)

Laridae – gulls, terns, skimmers (103 species)

Stercorariidae – skuas (7 species)

Alcidae – auks (25 species)

Phylogeny of the Charadriiformes based a study by Heiner Kuhl and collaborators published in 2020.[4] The families and the number of species are from the list maintained by Frank Gill, Pamela Rasmussen and David Donsker on behalf of the International Ornithologists' Union.[8] The suborders are those defined by Joel Cracraft in 2013.[9]

Evolutionary history

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That the Charadriiformes are an ancient group is also borne out by the fossil record. Alongside the Anseriformes, the Charadriiformes are the only other order of modern bird to have an established fossil record within the late Cretaceous, alongside the other dinosaurs.[10] Much of the Neornithes' fossil record around the Cretaceous–Paleogene extinction event is made up of bits and pieces of birds which resemble this order. In many, this is probably due to convergent evolution brought about by semiaquatic habits. Specimen VI 9901 (López de Bertodano Formation, Late Cretaceous of Vega Island, Antarctica) is probably a basal charadriiform somewhat reminiscent of a thick-knee.[11] However, more complete remains of undisputed charadriiforms are known only from the mid-Paleogene onwards. Present-day orders emerged around the Eocene-Oligocene boundary, roughly 35-30 mya. Basal or unresolved charadriiforms are:

  • "Morsoravis" (Late Paleocene/Early Eocene of Jutland, Denmark) - a nomen nudum?
  • Jiliniornis (Huadian Middle Eocene of Huadian, China) - charadriid?
  • Boutersemia (Early Oligocene of Boutersem, Belgium) - glareolid?
  • Turnipax (Early Oligocene) - turnicid?
  • Elorius (Early Miocene Saint-Gérand-le-Puy, France)
  • "Larus" desnoyersii (Early Miocene of SE France) - larid? stercorarid?
  • "Larus" pristinus (John Day Early Miocene of Willow Creek, US) - larid?
  • Charadriiformes gen. et sp. indet. (Bathans Early/Middle Miocene of Otago, New Zealand) - charadriid? scolopacid?[12]
  • Charadriiformes gen. et sp. indet. (Bathans Early/Middle Miocene of Otago, New Zealand) - charadriid? scolopacid?[13]
  • Charadriiformes gen. et sp. indet. (Bathans Early/Middle Miocene of Otago, New Zealand) - larid?[14]
  • Charadriiformes gen. et sp. indet. (Sajóvölgyi Middle Miocene of Mátraszõlõs, Hungary[15]
  • "Totanus" teruelensis (Late Miocene of Los Mansuetos, Spain) - scolopacid? larid?

The "transitional shorebirds" ("Graculavidae") are a generally Mesozoic form taxon formerly believed to constitute the common ancestors of charadriiforms, waterfowl and flamingos. They are now assumed to be mostly basal taxa of the charadriiforms and/or "higher waterbirds", which probably were two distinct lineages 65 mya already,[16] and few if any are still believed to be related to the well-distinct waterfowl. Taxa formerly considered graculavids are:

Other wader- or gull-like birds incertae sedis, which may or may not be Charadriiformes, are:

Evolution of parental care in Charadriiformes

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Shorebirds pursue a larger diversity of parental care strategies than do most other avian orders. They therefore present an attractive set of examples to support the understanding of the evolution of parental care in avians generally.[18] The ancestral avian most likely had a female parental care system.[19] The shorebird ancestor specifically evolved from a bi-parental care system, yet the species within the clade Scolopacidae evolved from a male parental care system. These transitions might have occurred for several reasons. Brooding density is correlated with male parental care. Male care systems in birds are shown to have a very low breeding density while female care systems in birds have a high breeding density. (Owens 2005). Certain rates of male and female mortality, male and female egg maturation rate, and egg death rate have been associated with particular systems as well.[20] It has also been shown that sex role reversal is motivated by the male-biased adult sex ratio.[21] The reason for such diversity in shorebirds, compared to other birds, has yet to be understood.

See also

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Footnotes

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  1. ^ Bertelli, S.; Lindow, B. E. K.; Dyke, G. J.; Mayr, G. (2013). "Another charadriiform-like bird from the lower Eocene of Denmark". Paleontological Journal. 47 (11). Pleiades Publishing Ltd: 1282–1301. Bibcode:2013PalJ...47.1282B. doi:10.1134/s0031030113110026. hdl:11336/7192. ISSN 0031-0301. S2CID 85141394.
  2. ^ Bertelli, S.; Lindow, B. E. K.; Dyke, G. J.; Mayr, G. (2014). "Erratum to: "Another charadriiform-like bird from the Lower Eocene of Denmark"". Paleontological Journal. 48 (13). Pleiades Publishing Ltd: 1441–1448. Bibcode:2014PalJ...48.1441B. doi:10.1134/s0031030114130024. hdl:11336/12701. ISSN 0031-0301.
  3. ^ Mayr, Gerald (2016). Avian evolution: the fossil record of birds and its paleobiological significance. Topics in Paleobiology. Wiley-Blackwell. p. 306. ISBN 978-1-119-02076-9.
  4. ^ a b Kuhl., H.; Frankl-Vilches, C.; Bakker, A.; Mayr, G.; Nikolaus, G.; Boerno, S. T.; Klages, S.; Timmermann, B.; Gahr, M. (2020). "An unbiased molecular approach using 3'UTRs resolves the avian family-level tree of life". Molecular Biology and Evolution. 38: 108–127. doi:10.1093/molbev/msaa191. PMC 7783168. PMID 32781465.
  5. ^ Černý, David; Natale, Rossy (2021-07-16). "Comprehensive taxon sampling and vetted fossils help clarify the time tree of shorebirds (Aves, Charadriiformes)". bioRxiv 10.1101/2021.07.15.452585.
  6. ^ Fain & Houde (2004)
  7. ^ Ericson et al. (2003), Paton et al. (2003), Thomas et al. (2004a,b), van Tuinen et al. (2004), Paton & Baker (2006)
  8. ^ a b Gill, Frank; Donsker, David; Rasmussen, Pamela, eds. (July 2021). "IOC World Bird List Version 11.2". International Ornithologists' Union. Archived from the original on 4 October 2020. Retrieved 19 December 2021.
  9. ^ a b Cracraft, Joel (2013). Dickinson, E.C.; Remsen, J.V. Jr. (eds.). The Howard & Moore Complete Checklist of the Birds of the World. Vol. 1: Non-passerines (4th ed.). Eastbourne, UK: Aves Press. pp. xxxvii–xxxviii. ISBN 978-0-9568611-0-8.
  10. ^ Baker, Allan J; Pereira, Sérgio L; Paton, Tara A (2007-04-22). "Phylogenetic relationships and divergence times of Charadriiformes genera: multigene evidence for the Cretaceous origin of at least 14 clades of shorebirds". Biology Letters. 3 (2): 205–210. doi:10.1098/rsbl.2006.0606. ISSN 1744-9561. PMC 2375939. PMID 17284401.
  11. ^ Case, J. A. and C. P. Tambussi. 1999. Maastrichtian record of neornithine birds in Antarctica: comments on a Late Cretaceous radiation
  12. ^ Proximal right humerus (MNZ S42416) and proximal left carpometacarpi (MNZ S42415, S42435) of a bird the size of a red-necked stint: Worthy et al. (2007)
  13. ^ Several wing and thorax bones of a bird the size of a double-banded plover: Worthy et al. (2007)
  14. ^ Premaxillae (MNZ S42681, S42736) and proximal right scapula (MNZ S41058) of a bird apparently similar to the black-billed gull but almost the size of a kelp gull: Worthy et al. (2007)
  15. ^ Gál et al. (1998-99)
  16. ^ Hope, Sylvia (4 June 1996). "A New Species of Graculavus from the Cretaceous of Wyoming (Aves: Neornithes)". Smithsonian Contributions to Paleobiology. 89: 261–266. doi:10.5479/SI.00810266.89.1. S2CID 140700031. Archived from the original on 8 May 2024. Retrieved 23 February 2024.
  17. ^ A wading bird the size of a white stork (Ciconia ciconia): Bourdon (2005)
  18. ^ Thomas, Gavin H.; Székely, Tamás; Reynolds, John D. (2007). "Sexual Conflict and the Evolution of Breeding Systems in Shorebirds". Advances in the Study of Behavior. Vol. 37. Elsevier. pp. 279–342. doi:10.1016/s0065-3454(07)37006-x. ISBN 9780120045372. ISSN 0065-3454.
  19. ^ Tullberg, B. S., M. Ah–King and H. Temrin. 2002. Phylogenetic reconstruction of parental–care systems in the ancestors of birds. Philosophical Transactions of the Royal Society of London. Series B, Biological Sciences. 357: 251–257.
  20. ^ Klug, H., M. B. Bonsall, and S.H Alonzo. 2013. Sex differences in life history drive evolutionary transitions among maternal, paternal, and bi-parental care. Ecology and Evolution. 3: 792–806.
  21. ^ Liker, A., R. P. Freckleton, and T. Székely. 2013. The evolution of sex roles in birds is related to adult sex ratio. Nature Communications. 4: 1587.

References

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  • Bourdon, Estelle (2006): L'avifaune du Paléogène des phosphates du Maroc et du Togo: diversité, systématique et apports à la connaissance de la diversification des oiseaux modernes (Neornithes) ["Paleogene avifauna of phosphates of Morocco and Togo: diversity, systematics and contributions to the knowledge of the diversification of the Neornithes"]. Doctoral thesis, Muséum national d'histoire naturelle [in French]. HTML abstract
  • Ericson, Per G.P.; Envall, I.; Irestedt, M. & Norman, J.A. (2003): Inter-familial relationships of the shorebirds (Aves: Charadriiformes) based on nuclear DNA sequence data. BMC Evol. Biol. 3: 16. doi:10.1186/1471-2148-3-16 PDF fulltext
  • Fain, Matthew G. & Houde, Peter (2004): Parallel radiations in the primary clades of birds. Evolution 58(11): 2558–2573. doi:10.1554/04-235 PMID 15612298 PDF fulltext
  • Gál, Erika; Hír, János; Kessler, Eugén & Kókay, József (1998–99): Középsõ-miocén õsmaradványok, a Mátraszõlõs, Rákóczi-kápolna alatti útbevágásból. I. A Mátraszõlõs 1. lelõhely [Middle Miocene fossils from the sections at the Rákóczi chapel at Mátraszőlős. Locality Mátraszõlõs I.]. Folia Historico Naturalia Musei Matraensis 23: 33–78. [Hungarian with English abstract] PDF fulltext
  • Klug, H., M. B. Bonsall, and S.H Alonzo. 2013. Sex differences in life history drive evolutionary transitions among maternal, paternal, and bi-parental care. Ecology and Evolution. 3: 792–806.
  • Liker, A., R. P. Freckleton, and T. Székely. 2013. The evolution of sex roles in birds is related to adult sex ratio. Nature Communications. 4: 1587.
  • Owens, I.P. 2002. Male–only care and classical polyandry in birds: phylogeny, ecology and sex differences in remating opportunities. Philosophical Transactions of the Royal Society of London. Series B, Biological Sciences. 357: 283–293.
  • Paton, Tara A. & Baker, Allan J. (2006): Sequences from 14 mitochondrial genes provide a well-supported phylogeny of the Charadriiform birds congruent with the nuclear RAG-1 tree. Mol. Phylogenet. Evol. 39(3): 657–667. doi:10.1016/j.ympev.2006.01.011 PMID 16531074 (HTML abstract)
  • Paton, T.A.; Baker, A.J.; Groth, J.G. & Barrowclough, G.F. (2003): RAG-1 sequences resolve phylogenetic relationships within charadriiform birds. Mol. Phylogenet. Evol. 29: 268–278. doi:10.1016/S1055-7903(03)00098-8 PMID 13678682 (HTML abstract)
  • Székely, T and J.D. Reynolds. 1995. Evolutionary transitions in parental care in shorebirds. Proceedings of the Royal Society of London. Series B: Biological Sciences. 262: 57–64.
  • Thomas, Gavin H.; Székely, Tamás; Reynolds, John D. (2007). "Sexual Conflict and the Evolution of Breeding Systems in Shorebirds". Advances in the Study of Behavior. Vol. 37. Elsevier. pp. 279–342. doi:10.1016/s0065-3454(07)37006-x. ISBN 9780120045372. ISSN 0065-3454.
  • Thomas, Gavin H.; Wills, Matthew A. & Székely, Tamás (2004a): Phylogeny of shorebirds, gulls, and alcids (Aves: Charadrii) from the cytochrome-b gene: parsimony, Bayesian inference, minimum evolution, and quartet puzzling. Mol. Phylogenet. Evol. 30(3): 516–526. doi:10.1016/S1055-7903(03)00222-7 (HTML abstract)
  • Thomas, Gavin H.; Wills, Matthew A. & Székely, Tamás (2004): A supertree approach to shorebird phylogeny. BMC Evol. Biol. 4: 28. doi:10.1186/1471-2148-4-28 PMID 15329156 PDF fulltext Supplementary Material
  • Tullberg, B. S., M. Ah–King and H. Temrin. 2002. Phylogenetic reconstruction of parental–care systems in the ancestors of birds. Philosophical Transactions of the Royal Society of London. Series B, Biological Sciences. 357: 251–257.
  • van Tuinen, Marcel; Waterhouse, David & Dyke, Gareth J. (2004): Avian molecular systematics on the rebound: a fresh look at modern shorebird phylogenetic relationships. J. Avian Biol. 35(3): 191–194. doi:10.1111/j.0908-8857.2004.03362.x PDF fulltext
  • Worthy, Trevor H.; Tennyson, A.J.D.; Jones, C.; McNamara, J.A. & Douglas, B.J. (2007): Miocene waterfowl and other birds from central Otago, New Zealand. J. Syst. Palaeontol. 5(1): 1-39. doi:10.1017/S1477201906001957 (HTML abstract)
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