Abstract
Samples of the burrows studied herein, originally introduced as Eione moniliformis Tate, have been collected from the heterolithic sandstone and siltstone beds of a coastal outcrop near the town of Howick, Northumberland, UK. These interbedded and hummocky cross-stratified beds, belonging to the Stainmore Formation, are Carboniferous and represent offshore marine sediment deposited between the fair wave base and storm wave base. As the name Eione was used previously to describe a genus of gastropod, Eione Tate is a junior homonym of Eione Rafinesque. Therefore, a new ichnogenus was established, Parataenidium Buckman, to accommodate burrows composed of two distinct levels, which included E. moniliformis. Using three-dimensional morphological modeling techniques, this study aims to: (1) clarify the current taxonomic status of Parataenidium moniliformis; and (2) provide an updated model for its construction. The transfer of E. moniliformis to Parataenidium was problematic, primarily because it is not composed of two distinct levels, but, instead, is composed of backfilled reniform sediment packages. These packages were created through a multistage process whereby the organism maintained a small open cavity from which it fed. Accordingly, a new ichnogenus, Neoeione, is proposed to accommodate the material originally described by Tate.
Kurzfassung
Material der hier untersuchten Grabgänge, ursprünglich eingeführt als Eione moniliformis Tate, wurde aus heterolithischen Sandstein- und Siltstein-Schichten eines küstennahen Aufschlusses nahe der Stadt Howick (Northumberland, UK) geborgen. Diese wechsellagernden (“hummocky cross”)-Schichten gehören zur karbonischen Stainmore-Formation und repräsentieren marine Schelfablagerungen. Da der Name Eione schon früher verwendet worden ist um eine Gastropoden-Gattung zu beschreiben, handelt es sich bei Eione Tate um ein jüngeres Homonym von Eione Rafinesque. Aufgrund dieser Tatsache wurde zuvor eine neue Ichnogattung – Parataenidium Buckman – aufgestellt, die Gänge mit zwei eindeutigen Lagen umfasst und auch E. moniliformis inkludiert. Unter Verwendung von dreidimensionalen morphologischen Modellierungstechniken ist unsere Untersuchung darauf ausgerichtet: (1) den jetzigen taxonomischen Status von Parataenidium moniliformis zu klären, und (2) ein aktualisiertes Modell des Aufbaus zu liefern. Die Zuordnung von Eione moniliformis zu Parataenidium war problematisch; insbesondere aufgrund der Tatsache, dass dieser nicht aus zwei eindeutigen Lagen sondern stattdessen aus verfüllten nierenförmigen Sedimenteinheiten aufgebaut ist. Diese wurden durch einen mehrstufigen Prozess gebildet, wobei der spurenerzeugende Organismus eine kleine offene Höhlung beibehalten hat, durch die Nahrung aufgenommen werden konnte. Dementsprechend wird hier die neue Ichnogattung Neoeione vorgeschlagen, um das ursprünglich von Tate beschriebene Material unterbringen zu können.
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References
Ainsworth, R.B., and S.F. Crowley. 1994. Wave-dominated nearshore sedimentation and “forced” regression. Post-abandonment facies, Great Limestone Cyclothem, Stainmore, UK. Journal of the Geological Society, London 151: 681–695.
Archer, A.W. 1984. Preservational control of trace-fossil assemblages: Middle Mississippian carbonates of south-central Indiana. Journal of Paleontology 58: 285–297.
Baucon, A., and C. Neto de Carvalho. 2008. From the river to the sea: Pramollo, a new ichnolagerstätte from the Carnic Alps (Carboniferous, Italy–Austria). Studi Trentini di Scienze Naturali Acta Geologica 83: 87–114.
Bednarz, M., L.G. Herringshaw, C. Boyd, M. Leaman, E. Kahlmeyer, and D. McIlroy. 2015. Precision serial grinding and volumetric 3D reconstruction of large ichnological specimens. In Ichnology: Papers from Ichnia III, ed. D. McIlroy, 1–13. (Geological Association of Canada, Miscellaneous Publication 9).
Benton, M.J. 1982. Trace fossils from lower Palaeozoic ocean-floor sediments of the Southern Uplands of Scotland. Transactions of the Royal Society of Edinburgh: Earth Sciences 73: 67–87.
Boyd, C.J.T., and D. McIlroy. 2016. Three-dimensional morphology and palaeobiology of the trace fossil Dactyloidites jordii nov. isp. from the Carboniferous of England. Geobios 49: 257–264.
Boyd, C.J.T., and D. McIlroy. 2017. Three-dimensional morphology of Beaconites capronus from Northeast England. Ichnos. doi:10.1080/10420940.2017.1282862.
Buckman, J.O. 2001. Parataenidium, a new Taenidium-like ichnogenus from the Carboniferous of Ireland. Ichnos 8: 83–97.
D’Alessandro, G., and R.G. Bromley. 1987. Meniscate trace fossils and the Muensteria-Taenidium problem. Palaeontology 30: 743–763.
Dean, M.T., M.A.E. Browne, C.N. Waters, and J.H. Powell. 2011. A lithostratigraphical framework for the Carboniferous successions of northern Great Britain (onshore). British Geological Survey Research Report RR/10/07: 1–174.
Devera, J.A. 1989. Ichnofossil assemblages and associated lithofacies of the Lower Pennsylvanian (Caseyville and Tradewater Formations), southern Illinois. Geology of the Lower Pennsylvanian in Kentucky, Indiana, and Illinois. Illinois Basin Studies 1: 57–83.
Eagar, R.M.C., J.C. Baines, P.G. Collinson, S.A. Hardy, S.A. Okolo, and J.E. Pollard. 1985. Trace fossil assemblages and their occurrence in Silesian (mid-Carboniferous) deltaic sediments of the Central Pennine Basin, England. SEPM Special Publication 35: 99–149.
Głuszek, A. 1998. Trace fossils from Late Carboniferous storm deposits, Upper Silesia Coal Basin, Poland. Acta Palaeontologica Polonica 43: 517–546.
Hancock, A. 1858. Remarks on certain vermiform fossils found in the Mountain Limestone Districts of the North of England. Journal of Natural History 2: 443–457.
Häntzschel, W. 1975. Trace fossils and problematica. In Treatise on invertebrate paleontology, part. W. Miscellanea, supplement I, ed. C. Teichert, 1–269. Lawrence: University of Kansas Press.
Herringshaw, L.G., and D. McIlroy. 2013. Bioinfiltration: irrigation-driven transport of clay particles through bioturbated sediments. Journal of Sedimentary Research 83: 443–450.
ICZN (International Commission for Zoological Nomenclature). 1999. International Code of Zoological Nomenclature, adopted by the International Union of Biological Sciences, 4th edition, 1–232. London: International Trust for Zoological Nomenclature.
Jumars, P.A., K.M. Dorgan, and S.M. Lindsay. 2015. Diet of worms emended: an update of polychaete feeding guilds. Annual Review of Marine Science 7: 497–520.
Kemp, P.F. 1986. Direct uptake of detrital carbon by the deposit-feeding polychaete Euzonus mucronata (Treadwell). Journal of Experimental Marine Biology and Ecology 99: 49–61.
Knaust, D. 2012. Trace-fossil systematics. In Developments in Trace Fossils as Indicators of Sedimentary Environments, eds. D. Knaust, and R.G. Bromley, 79–101. (Developments in Sedimentology 64).
Lockley, M.G., A.K. Rindsberg, and R.M. Zeiler. 1987. The paleoenvironmental significance of the nearshore Curvolithus ichnofacies. Palaios 2: 255–262.
Mángano, M.G., L.A. Buatois, C.G. Maples, and R. West, R. 1996. Trace fossils from an Upper Carboniferous tidal shoreline (Stull Shale Member of eastern Kansas). 30th International Geological Congress, Beijing, Abstract Volume 2: p. 133.
Mángano, M.G., and M.L. Droser. 2004. The ichnologic record of the Ordovician radiation. In The great Ordovician biodiversification event, eds. B.D. Webby, F. Paris, M.L. Droser, and I.G. Percival, 369–379. New York: Columbia University Press.
Mángano, M.G., L.A. Buatois, and A.K. Rindsberg. 2002. Carboniferous Psammichnites: systematic re-evaluation, taphonomy and autecology. Ichnos 9: 1–22.
Mángano, M.G., L.A. Buatois, and C.G. Maples. 2000. A new ichnospecies of Nereites from Carboniferous tidal-flat facies of eastern Kansas, USA: Implications for the Nereites-Neonereites debate. Journal of Paleontology 74: 149–157.
Maples, C.G., and L.J. Suttner. 1990. Trace fossils and marine-nonmarine cyclicity in the Fountain Formation (Pennsylvanian: Morrowan/Atokan) near Manitou Springs, Colorado. Journal of Paleontology 64: 859–880.
McIlroy, D., and G.R. Heys. 1997. Palaeobiological significance of Plagiogmus arcuatus from the lower Cambrian of central Australia. Alcheringa 21: 161–178.
Narbonne, G.M. 1984. Trace fossils in Upper Silurian tidal flat to basin slope carbonates of Arctic Canada. Journal of Paleontology 58: 398–415.
Rafinesque, C.S. 1814. Quadro dei Generi di Molluschi pteropodi dei Signori Peron e Lesueur. Specchio delle Scienze (o Giornale Enciclopédico di Sicilia) 2 (11): 153–155.
Rindsberg, A.K. 1994. Ichnology of the Upper Mississippian Hartselle Sandstone of Alabama, with notes on other Carboniferous formations. Geological Survey of Alabama, Bulletin 158: 1–107.
Schaffer, F.X. 1928. Hormosiroidea florentina nov. gen. nov. sp., ein Fucus aus der Kreide der Umgebung von Florenz. Paläontologische Zeitschrift 10: 212–215.
Seilacher, A. 1990. Paleozoic trace fossils. In The Geology of Egypt, ed. R. Said, 649–670. Rotterdam: A.A. Balkema.
Seilacher, A. 2007. Trace fossil analysis. New York: Springer Science and Business Media.
Shrock, R.R. 1935. Probable worm castings (“coprolites”) in the Salem Limestone of Indiana. Proceedings of Indiana Academy of Sciences 44: 174–175.
Šimo, V., and A. Tomašových. 2013. Trace-fossil assemblages with a new ichnogenus in “spotted” (Fleckenmergel-Fleckenkalk) deposits: a signature of oxygen limited benthic communities. Geologica Carpathica 64: 355–374.
Tate, G. 1859. The geology of Beadnell in the county of Northumberland, with a description of some annelids of the Carboniferous formation. The Geologist 154: 59–70.
Teichert, C. 1941. Upper Paleozoic of Western Australia: correlation and paleogeography. AAPG Bulletin 25: 371–415.
Uchman, A., and A. Gazdzicki. 2006. New trace fossils from the La Meseta Formation (Eocene) of Seymour Island, Antarctica. Polish Polar Research 27: 153–170.
Westoll, T.S., D.A. Robson, and R. Green. 1955. A guide to the geology of the district around Alnwick, Northumberland. Proceedings of the Yorkshire Geological and Polytechnic Society 30: 61–100.
Acknowledgements
This work was supported by an NSERC Discovery Grant, and a Canada Research Chair awarded to D. McIlroy. M. Garton is thanked for his field assistance with sample collection. J. Howell is thanked for introducing us to the Howick sections. J. Darrell of The Natural History Museum is thanked for her assistance and photographs of specimen BMNH T163. Patrick Orr, Søren Jensen, and Andrew Rindsberg are thanked for their reviews of this manuscript.
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Handling editor: Mike Reich.
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Boyd, C., McIlroy, D. The morphology and mode of formation of Neoeione igen. nov. from the Carboniferous of northern England. PalZ 92, 179–190 (2018). https://doi.org/10.1007/s12542-017-0379-z
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DOI: https://doi.org/10.1007/s12542-017-0379-z