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Rautangaroa, a new genus of feather star (Echinodermata, Crinoidea) from the Oligocene of New Zealand

Published online by Cambridge University Press:  25 May 2018

Tomasz K. Baumiller
Affiliation:
Museum of Paleontology, University of Michigan, Ann Arbor, Michigan 48109, USA 〈[email protected]
R. Ewan Fordyce
Affiliation:
Department of Geology, University of Otago, Dunedin 9054, New Zealand 〈[email protected]

Abstract

We describe a nearly complete, and thus extremely rare, feather star (Crinoidea, Comatulida) from Oligocene strata of North Otago/South Canterbury, New Zealand. A detailed analysis of this specimen, as well as newly recovered material and previously described fragmentary remains from nearby contemporaneous sedimentary units, in addition to relevant historical specimens, lead us to conclude that it cannot be placed in any currently established genus. A new genus, Rautangaroa, is proposed to accommodate it.

This intact specimen of Rautangaroa aotearoa (Eagle, 2007), provides rare data on the morphology of arms and cirri. It represents the first example of arm autotomy and regeneration in a fossil feather star and thus has bearing on the importance of predation to the evolutionary history of this group.

UUID: http://zoobank.org/c050dafd-93ba-4334-b11b-59209aabb588

Type
Articles
Copyright
Copyright © 2018, The Paleontological Society 

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References

Ameghino, F., 1906, Les formations sédimentaires du Crétacé Supérieur et du Tertiaire de Patagonie avec un parallèle entre leurs faunes mammalogiques et celles de l’ancien continent: Anales del Museo Nacional de Buenos Aires, v. 15, ser. III, t. VIII, p. 1–568.Google Scholar
Aronson, R.B., Blake, D.B., and Oji, T., 1997, Retrograde community structure in the late Eocene of Antarctica: Geology, v. 25, p. 903906.Google Scholar
Ayress, M.A., 1993, Ostracod biostratigraphy and palaeoecology of the Kokoamu Greensand and Otekaike Limestone (late Oligocene to early Miocene), North Otago and South Canterbury, New Zealand: Alcheringa, v. 17, p. 125151.Google Scholar
Baumiller, T.K., 1997, Crinoid functional morphology, in Waters, J.A., and Maples, C.G., eds., Geobiology of Echinoderms: Paleontological Society Papers No. 3, p. 45–68.Google Scholar
Baumiller, T.K., 2003, Experimental and biostratinomic disarticulation of crinoids: Taphonomic implications, in Feral, P., and David, B., eds., Echinoderm Research 2001: Rotterdam, A.A. Balkema, p. 243248.Google Scholar
Baumiller, T.K., 2008, Crinoid ecological morphology: Annual Reviews of Earth and Planetary Sciences, v. 36, p. 22152249.Google Scholar
Baumiller, T.K., 2013a, Arm regeneration frequencies in Florometra serratissima (Crinoidea, Echinodermata): Impact of depth of habitat on rates of arm loss: Cahiers de Biologie Marine, v. 54, p. 571576.Google Scholar
Baumiller, T.K., 2013b, Ephemeral injuries, regeneration frequencies and intensity of the injury-producing process: Marine Biology, v. 160, p. 32333239.Google Scholar
Baumiller, T.K., and Gahn, F.J., 2003, Predation on crinoids, in Kelley, P., Kowalewski, M., and Hansen, T.H., eds., Predator-prey Interactions in the Fossil Record. Topics in Geobiology 20: New York, Kluwer Academic/Plenum Publishers, p. 263278.Google Scholar
Baumiller, T.K., and Gahn, F.J., 2004, Testing predation-driven evolution using mid-Paleozoic crinoid arm regeneration: Science, v. 305, p. 14531455.Google Scholar
Baumiller, T.K., and Gahn, F.J., 2013, Reconstructing predation pressure on crinoids: Estimating arm-loss rates from regenerating arms: Paleobiology, v. 39, p. 4051.Google Scholar
Baumiller, T.K., and Gaździcki, A., 1996, New crinoids from the Eocene La Meseta Formation of Seymour Island, Antarctic Peninsula: Palaeontologia Polonica, v. 55, p. 101116.Google Scholar
Baumiller, T.K., LaBarbera, M., and Woodley, J.W., 1991, Ecology and functional morphology of the isocrinid Cenocrinus asterius (Linnaeus) (Echinodermata: Crinoidea): In situ and laboratory experiments and observations: Bulletin Marine Science, v. 48, p. 731748.Google Scholar
Baumiller, T.K., Gahn, F.J., Hess, H., and Messing, C.G., 2008a, Taphonomy as an indicator of behavior among fossil crinoids, in Ausich, W.I., and Webster, G., eds., Echinoderm Paleobiology: Bloomington, Indiana University Press, p. 720.Google Scholar
Baumiller, T.K., Mooi, R., and Messing, C.G., 2008b, Urchins in the meadow: Paleobiological and evolutionary implications of cidaroid predation on crinoids: Paleobiology, v. 34, p. 2234.Google Scholar
Bowden, D.A., Schiaparelli, S., Clark, M.R., and Rickard, G.J., 2011, A lost world? Archaic crinoid-dominated assemblages on an Antarctic seamount: Deep-Sea Research Part II, v. 58, p. 119127.Google Scholar
Chapman, F., 1926, Cretaceous and Tertiary Foraminifera of New Zealand: With an appendix on the Ostracoda: New Zealand Geological Survey Paleontological Bulletin, v. 11, p. 1119.Google Scholar
Chapman, F., Parr, W.J., and Collins, A.C., 1934, Tertiary Foraminifera of Victoria, Australia.—The Balcombian Deposits of Port Phillip. Part III: Journal of the Linnean Society of London, Zoology, v. 38, p. 553577.Google Scholar
Ciampaglio, C.N., and Weaver, P.G., 2004, Comatulid crinoids from the Castle Hayne Limestone (Eocene): Southeastern North Carolina: Southeastern Geology, v. 42, p. 179187.Google Scholar
Cintra-Buenrostro, C.E., 2007, Trampling, peeling and nibbling mussels: An experimental assessment of mechanical and predatory damage to shells of Mytilus trossulus (Mollusca: Mytilidae): Journal of Shellfish Research, v. 26, p. 221231.Google Scholar
Clark, A.H., 1908, Notice of some crinoids in the collection of the Museum of Comparative Zoology: Harvard University, Museum of Comparative Zoology, Bulletin, v. 51, p. 233248.Google Scholar
Conan, G., Roux, M., and Sibuet, M., 1981, A photographic survey of a population of the stalked Diplocrinus (Annacrinus) wyvillethomsoni (Echinodermata) from the bathyal slope of the Bay of Biscay: Deep-Sea Research, v. 28A, p. 441453.Google Scholar
de Loriol, P., 1902, Notes pour servir à l'étude des echinoderms (series 2): Georg & Cie, Bale and Genève/Berlin, Georg & Co./Friedländer, no. 1, 52 p.Google Scholar
Donovan, S.K., 2001, Evolution of Caribbean echinoderms during the Cenozoic: Moving towards a complete picture using all of the fossils: Palaeogeography, Palaeoclimatology, Palaeoecology, v. 166, p. 177192.Google Scholar
Eagle, M.K., 2001, New fossil crinoids (Articulata: Comatulida) from the late Oligocene of Waitete Bay, northern Coromandel Peninsula, New Zealand: Records of the Auckland Museum, v. 37, p. 8192.Google Scholar
Eagle, M.K., 2007, New fossil crinoids (Articulata: Comatulida) from the late Oligocene of the Pentland Hills and Hurstlea, South Canterbury, New Zealand: Records of the Auckland Museum, v. 44, p. 85110.Google Scholar
Eagle, M.K., 2008, New comatulid crinoids from the Meyers Pass Limestone Member (Waitakian (Chattian)) of the Pentland Hills and Hurstlea, South Canterbury, New Zealand: Records of the Auckland Museum, v. 45, p. 101129.Google Scholar
Fishelson, L., 1972, Histology and ultrastructure of the skin of Lepadichthys lineatus (Gobiesocidae: Teleostei): Marine Biology, v. 17, p. 357364.Google Scholar
Fishelson, L., 1974, Ecology of the northern Red Sea crinoids and their epi- and endozoic fauna: Marine Biology, v. 26, p. 183192.Google Scholar
Fordyce, R.E., and Marx, F.G., 2016, Mysticetes baring their teeth: A new fossil whale, Mammalodon hakataramea, from the Southwest Pacific: Memoirs of Museum Victoria, v. 74, p. 107116.Google Scholar
Fordyce, R.E., and Maxwell, P.A., 2003, Canterbury basin paleontology and stratigraphy: Field trip 8, Geological Society of New Zealand Annual Conference 2003, in Cox, S.C., and Smith-Lyttle, B, eds., Geological Society of New Zealand 2003 Annual Conference, 1–4 December, University of Otago, Dunedin: Field Trip Guides: Geological Society of New Zealand Miscellaneous Publications, v. 116B, p. FT8-1–18.Google Scholar
Forsyth, P.J., 2001, Geology of the Waitaki area. Scale 1:250,000: Institute of Geological and Nuclear Sciences Geological Map, v. 19, p. 164.Google Scholar
Gage, M., 1957, The geology of Waitaki subdivision: New Zealand Geological Survey Bulletin n.s., v. 55, p. 1135.Google Scholar
Gahn, F.J., and Baumiller, T.K., 2005, Arm regeneration in Mississippian crinoids: Evidence of intense predation pressure in the Paleozoic?: Paleobiology, v. 31, p. 151164.Google Scholar
Gahn, F.J., and Baumiller, T.K., 2010, Evolutionary history of regeneration in crinoids (Echinodermata): Integrative and Comparative Biology, v. 50, p. 514514.Google Scholar
Gislén, T., 1924, Echinoderm studies: Zoologisk Bidrag från Uppsala, v. 9, p. 1330.Google Scholar
Gorzelak, P., Salamon, M.A., and Baumiller, T.K., 2012, Predator-induced macroevolutionary trends in Mesozoic crinoids: Proceedings of the National Academy of Sciences, v. 109, p. 7004–7007.Google Scholar
Gottfried, M.D., Fordyce, R.E, and Rust, S., 2012, A new billfish (Perciformes, Xiphioidei) from the late Oligocene of New Zealand: Journal of Vertebrate Paleontology, v. 32, p. 2734.Google Scholar
Hagdorn, H., and Campbell, H.J., 1993, Paracomatula triadica sp. nov.: An early comatulid crinoid from the Otapirian (Late Triassic) of New Caledonia: Alcheringa, v. 17, p. 117.Google Scholar
Hemery, L.G., 2011, Diversité moléculaire, phylogéographie et phylogénie des crinoïdes (Echinodermes) dans un environnement extrême: l’océan Austral [Ph.D. dissertation]: Paris, Muséum national d’Histoire naturelle, 381 p.Google Scholar
Hess, H., 1951, Ein neuer Crinoide aus dem mittleren Dogger der Nordschweiz (Paracomatula helvetica n. gen. n. sp.): Eclogae geologicae Helvetiae, v. 43, p. 208216.Google Scholar
Hess, H., 2014, Origin and radiation of the comatulids (Crinoidea) in the Jurassic: Swiss Journal of Palaeontology, v. 133, p. 2334.Google Scholar
Hess, H., and Messing, C.G., 2011, Treatise on Invertebrate Paleontology Part T, Echinodermata 2, Revised, Crinoidea 3: Lawrence, University of Kansas and Paleontological Institute, 216 p.Google Scholar
Holland, N.D., and Grimmer, J.C., 1981, Fine structure of syzygial articulations before and after arm autotomy in Florometra serratissima (Echinodermata: Crinoidea): Zoomorphology, v. 98, p. 169183.Google Scholar
Hornibrook, N., de, B., Brazier, R.C., and Strong, C.P., 1989, Manual of New Zealand Permian to Pleistocene Foraminiferal Biostratigraphy: New Zealand Geological Survey, v. 56, p. 1175.Google Scholar
Howe, H.V., 1942, Neglected Gulf Coast Tertiary microfossils: American Association of Petroleum Geologists Bulletin, v. 26, p. 11861199.Google Scholar
Jenkins, D.G., 1960, Planktonic Foraminifera from the Lakes Entrace oil shaft, Victoria, Australia: Micropaleontology, v. 6, p. 345371.Google Scholar
Ksepka, D.T., Fordyce, R.E., Ando, T., and Jones, C.M., 2012, New fossil penguins (Aves, Sphenisciformes) from the Oligocene of New Zealand reveal the skeletal plan of stem penguins: Journal of Vertebrate Paleontology, v. 32, p. 235254.Google Scholar
Liddell, W.D., 1975, Recent crinoid biostratinomy: Geological Society of America Abstracts with Programs, v. 4, no. 7, p. 1169.Google Scholar
Magnus, D.B.E., 1963, Der Federstern Heterometra savignyi im Roten Meer: Natur und Museum, Frankfurt, v. 93, p. 355368.Google Scholar
Messing, C.G., 1997, Living comatulids, in Waters, J.A., and Maples, C.G., eds., Geobiology of Echinoderms: Paleontological Society Papers No. 3, p. 3–30.Google Scholar
Messing, C.G., 2003, Unique morphology in the living bathyal feather star, Atelecrinus (Echinodermata: Crinoidea): Invertebrate Biology, v. 122, p. 280292.Google Scholar
Messing, C.G., RoseSmyth, M.C., Mailer, S.R., and Miller, J.E., 1988, Relocation movement in a stalked crinoid (Echinodermata): Bulletin of Marine Science, v. 42, p. 480487.Google Scholar
Messing, C.G., Meyer, D.L., Siebeck, U.E., Jermiin, L.S., Vaney, D.I., and Rouse, G.W., 2006, A modern soft-bottom, shallow-water crinoid fauna (Echinodermata) from the Great Barrier Reef, Australia: Coral Reefs, v. 25, p. 164168.Google Scholar
Meyer, D.L., 1971, Post-mortem disarticulation of Recent crinoids and ophiuroids under natural conditions: Geological Society of America Abstracts with Programs, v. 3, no. 7, p. 645.Google Scholar
Meyer, D.L., 1985, Evolutionary implications of predation on Recent comatulid crinoids from the Great Barrier Reef: Paleobiology, v. 11, p. 154164.Google Scholar
Meyer, D.L., and Ausich, W.I., 1983, Biotic interactions among Recent and fossil crinoids, in Tevesz, M.J.S., and McCall, P.L., eds., Biotic Interactions in Recent and Fossil Benthic Communities: New York, Plenum, p. 377427.Google Scholar
Meyer, D.L., and Macurda, D.B. Jr., 1977, Adaptive radiation of comatulid crinoids: Paleobiology, v. 3, p. 7482.Google Scholar
Meyer, D.L., and Meyer, K.B., 1986, Biostratinomy of Recent crinoids (Echinodermata) at Lizard Island, Great Barrier Reef, Australia: Palaios, v. 1, p. 294302.Google Scholar
Meyer, D.L., LaHaye, C.A., Holland, N.D., Arenson, A.C., and Strickler, J.R., 1984, Time-lapse cinematography of feather stars (Echinodermata: Crinoidea) on the Great Barrier Reef, Australia: Demonstrations of posture changes, locomotion, spawning and possible predation by fish: Marine Biology, v. 78, p. 179184.Google Scholar
Miller, J.S., 1821, A Natural History of the Crinoidea or Lily-Shaped Animals, with Observations on the Genera Asteria, Euryale, Comatula, and Marsupites : Bristol, C. Frost, 150 p.Google Scholar
Mladenov, P.V., 1983, Rate of arm regeneration and potential causes of arm loss in the feather star Florometra serratissima (Echinodermata: Crinoidea): Canadian Journal of Zoology, v. 61, p. 28732879.Google Scholar
Nichols, D., 1994, Reproductive seasonality in the comatulid crinoid Antedon bifida (Pennant) from the English Channel: Philosophical Transactions: Biological Sciences, v. 343, p. 113134.Google Scholar
Oji, T., 1996, Is predation intensity reduced with increasing depth? Evidence from the west Atlantic stalked crinoid Endoxocrinus parrae (Gervais) and implications for the Mesozoic marine revolution: Paleobiology, v. 22, p. 339351.Google Scholar
Oji, T., 2001, Fossil record of echinoderm regeneration with special regard to crinoids: Microscopy Research and Technique, v. 55, p. 397402.Google Scholar
Oji, T., and Okamoto, T., 1994, Arm autotomy and arm branching pattern as anti-predatory adaptations in stalked and stalkless crinoids: Paleobiology, v. 20, p. 2739.Google Scholar
Oji, T., Ogaya, C., and Sato, T., 2003, Increase of shell-crushing predation recorded in fossil shell fragmentation: Paleobiology, v. 29, p. 520526.Google Scholar
Oyen, C.W., and Portell, R.W., 2001, Diversity patterns and biostratigraphy of Cenozoic echinoderms from Florida: Palaeogeography, Palaeoclimatology, Palaeoecology, v. 166, p. 193218.Google Scholar
Rouse, G.W., et al., 2013, Fixed, free, and fixed: The fickle phylogeny of extant Crinoidea (Echinodermata) and their Permian-Triassic origin: Molecular Phylogenetics and Evolution, v. 66, p. 161181.Google Scholar
Salamon, M.A., Gorzelak, P., Niedźwiedzki, R., Trzęsiok, D., and Baumiller, T.K., 2014, Trends in shell fragmentation as evidence of mid-Paleozoic changes in marine predation: Paleobiology, v. 40, p. 1423.Google Scholar
Schneider, J.A., 1988, Frequency of arm regeneration of comatulid crinoids in relation to life habit, in Burke, R.D., Mladenov, P.V., Lambert, P., and Parsley, R.L., eds., Echinoderm Biology: Rotterdam, A.A. Balkema, p. 531538.Google Scholar
Simms, M.J., Gale, A.S., Gilliland, P., Rose, E.P.F., and Sevastopulo, G.D., 1993, Echinodermata, in Benton, M.J., ed., The Fossil Record 2: London, Chapman and Hall, p. 491528.Google Scholar
Stafford, E.S., Chojnacki, N., Tyler, C., Schneider, C., and Leighton, L., 2012, Six thousand little pieces: Shell fragments as an indicator of crushing predation intensity: Geological Society of America Abstracts with Programs, v. 44, no. 7, p. 367.Google Scholar
Stevenson, A., Gahn, F.J., Baumiller, T.K., and Sevastopulo, G.D., 2017, Predation on feather stars by regular echinoids as evidenced by laboratory and field observations and its paleobiological implications: Paleobiology, v. 43, p. 274285.Google Scholar
Summers, M.M., Messing, C.G., and Rouse, G.W., 2017, The genera and species of Comatulidae (Comatulida: Crinoidea): taxonomic revisions and a molecular and morphological guide: Zootaxa, v. 4268, p. 151190.Google Scholar
Tanaka, Y., and Fordyce, R. E., 2015, A new Oligo-Miocene dolphin from New Zealand: Otekaikea huata expands diversity of the early Platanistoidea: Palaeontologia Alectronica, v. 18.2.23A, p. 171.Google Scholar
Vail, L., 1987, Diel patterns of emergence of crinoids (Echinodermata) from within a reef at Lizard Island, Great Barrier Reef, Australia: Marine Biology, v. 93, p. 551560.Google Scholar
Wilkie, I.C., 2001, Autotomy as a prelude to regeneration in echinoderms: Microscopy Research and Technique, v. 55, p. 369396.Google Scholar
Zatoń, M., and Salamon, M.A., 2008, Durophagous predation on Middle Jurassic molluscs, as evidenced from shell fragmentation: Palaeontology, v. 51, p. 6370.Google Scholar
ZittelK.A., von K.A., von, 1876–1880, Handbuch der Palaeontologie, Band 1, Palaeozoologie, Abteilung 1: München and Leipzig, R. Oldenbourg, 765 p.Google Scholar
Zuschin, M., Stachowitsch, M., and Stanton, R.J. Jr., 2003, Patterns and processes of shell fragmentation in modern and ancient marine environments: Earth-Science Reviews, v. 63, p. 3382.Google Scholar