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Dinosaur ichnology and sedimentology of the Chignik Formation (Upper Cretaceous), Aniakchak National Monument, southwestern Alaska; Further insights on habitat preferences of high-latitude hadrosaurs


Autoři: Anthony R. Fiorillo aff001;  Yoshitsugu Kobayashi aff002;  Paul J. McCarthy aff003;  Tomonori Tanaka aff004;  Ronald S. Tykoski aff001;  Yuong-Nam Lee aff005;  Ryuji Takasaki aff004;  Junki Yoshida aff004
Působiště autorů: Perot Museum of Nature and Science, Dallas, Texas, United States of America aff001;  Hokkaido University Museum, Hokkaido University, Hokkaido, Japan aff002;  Department of Geosciences, University of Alaska, Fairbanks, Alaska, United States of America aff003;  Department of Natural History and Planetary Sciences, Hokkaido University, Hokkaido, Japan aff004;  School of Earth and Environmental Sciences, Seoul National University, Seoul, South Korea aff005
Vyšlo v časopise: PLoS ONE 14(10)
Kategorie: Research Article
prolekare.web.journal.doi_sk: https://doi.org/10.1371/journal.pone.0223471

Souhrn

While there are now numerous records of dinosaurs from Cretaceous rocks around the state of Alaska, very few fossil records of terrestrial vertebrates are known from the Mesozoic rocks of the southwestern part of the state. Here we report the new discovery of extensive occurrences of dinosaur tracks from Aniakchak National Monument of the Alaska Peninsula. These tracks are in the Late Cretaceous (Maastrichtian) Chignik Formation, a cyclic sequence of rocks, approximately 500–600 m thick, representing shallow marine to nearshore marine environments in the lower part and continental alluvial coastal plain environments in the upper part of the section. These rocks are part of the Peninsular Terrane and paleomagnetic reconstructions based on the volcanic rocks of this terrane suggest that the Chignik Formation was deposited at approximately its current latitude which is almost 57° N. Recent field work in Aniakchak National Monument has revealed over 75 new track sites, dramatically increasing the dinosaur record from the Alaska Peninsula. Most of the combined record of tracks can be attributed to hadrosaurs, the plant-eating duck-billed dinosaurs. Tracks range in size from those made by full-grown adults to juveniles. Other tracks can be attributed to armored dinosaurs, meat-eating dinosaurs, and two kinds of fossil birds. The track size of the predatory dinosaur suggests a body approximately 6–7 m long, about the estimated size of the North Slope tyrannosaurid Nanuqsaurus. The larger bird tracks resemble Magnoavipes denaliensis previously described from Denali National Park, while the smaller bird tracks were made by a bird about the size of a modern Willet. Previous interdisciplinary sedimentologic and paleontologic work in the correlative and well-known dinosaur bonebeds of the Prince Creek Formation 1400km-1500km further north in Alaska suggested that high-latitude hadrosaurs preferred distal coastal plain or lower delta plain habitats. The ichnological record being uncovered in the Chignik Formation of southwestern Alaska is showing that the hadrosaur tracks here were also made in distal coastal and delta plain conditions. This similarity may corroborate the habitat preference model for Cretaceous high-latitude dinosaurs proposed for the data gathered from the Prince Creek Formation, and may indicate that at least Beringian hadrosaurids had similar habitat preferences regardless of latitude.

Klíčová slova:

Birds – Marine environments – Theropoda – Cretaceous period – Dinosaurs – Fossils – Ornithischia – Alaska


Zdroje

1. Fiorillo AR, Parrish JT. The first record of a Cretaceous dinosaur from western Alaska. Cretaceous Research 2004; 25:453–458.

2. Fiorillo AR. Alaska Dinosaurs: an Ancient Arctic World. Boca Raton: CRC Press, Boca Raton; 2018.

3. Fiorillo AR, McCarthy PJ, Breithaupt B, Brease P. Dinosauria and fossil Aves footprints from the Lower Cantwell Formation (latest Cretaceous), Denali Park and Preserve, Alaska. Alaska Park Science 2007; 6:41–43.

4. Fiorillo AR, Hasiotis ST, Kobayashi Y, Tomsich CS. A pterosaur manus track from Denali National Park, Alaska Range, Alaska, USA. PALAIOS 2009; 24:466–472.

5. Fiorillo AR, Hasiotis ST, Kobayashi Y, Breithaupt BH, McCarthy PJ. 2011. Bird tracks from the Upper Cretaceous Cantwell Formation of Denali National Park, Alaska, USA: a new perspective on ancient northern polar vertebrate biodiversity. Journal of Systematic Palaeontology 2011; 9:33–49.

6. Fiorillo AR, Adams TL. A therizinosaur track from the Lower Cantwell Formation (Upper Cretaceous) of Denali National Park, Alaska. PALAIOS 2012; 27:395–400.

7. Fiorillo AR, Hasiotis ST, Kobayashi Y. Herd structure in Late Cretaceous polar dinosaurs: a remarkable new dinosaur tracksite, Denali National Park, Alaska, USA. GEOLOGY 2014; 42:719–722.

8. Fiorillo AR, Contessi M, Kobayashi Y, McCarthy PJ. Theropod tracks from the Lower Cantwell Formation (Upper Cretaceous) of Denali National Park, Alaska, USA with comments on theropod diversity in an ancient, high-latitude terrestrial ecosystem. In Lockley M, Lucas SG, editors. Tracking Dinosaurs and other tetrapods in North America. New Mexico Museum of Natural History and Science Bulletin 62. Albuquerque, New Mexico 2014. p. 429–439.

9. Fiorillo AR, Kobayashi Y, McCarthy PJ, Wright TC, Tomsich CS. 2015. Reports of pterosaur tracks from the Lower Cantwell Formation (Campanian-Maastrichtian) of Denali National Park, Alaska, U.S.A., with comments about landscape heterogeneity and habitat preference. Historical Biology 2015; 27:672–683.

10. Fiorillo AR, Tykoski RS. Small hadrosaur manus and pes tracks from the lower Cantwell Formation (Upper Cretaceous), Denali National Park, Alaska: Implications for locomotion in juvenile hadrosaurs. PALAIOS 2016; 31:479–482.

11. Fiorillo AR, McCarthy PJ., Kobayashi Y, Tomisch CS, Tykoski RS, Lee Y-N, Tanaka T, Noto CR. An unusual association of hadrosaur and therizinosaur tracks within Late Cretaceous rocks of Denali National Park, Alaska. Scientific Reports 8 2018; doi: 10.1038/s41598-018-30110-8 30076347

12. Tomsich CS, McCarthy PJ, Fiorillo AR, Stone DB, Benowitz JA, O’Sullivan PB. 2014. New zircon U-Pb ages for the lower Cantwell Formation: Implications for the Late Cretaceous paleoecology and paleoenvironment of the lower Cantwell Formation near Sable Mountain, Denali National Park and Preserve, central Alaska Range, USA. In Stone DB, Grikurov GK, Clough JG, Oakey GN, Thurston DK, editors. ICAM VI: Proceedings of the International Conference on Arctic Margins VI, Fairbanks, Alaska, May 2011. St Petersburg: VSEGEI; 2014. p. 19–60.

13. Fiorillo AR, Adams TL, Kobayashi Y. New sedimentological, palaeobotanical, and dinosaur ichnological data on the palaeoecology of an unnamed Late Cretaceous rock unit in Wrangell-St. Elias National Park and Preserve, Alaska, USA: Cretaceous Research 2012; 37:291–299.

14. Fiorillo AR, Fanti F, Hults C, Hasiotis ST. New ichnological, paleobotanical and detrital zircon data from an unnamed rock unit in Yukon-Charley Rivers National Preserve (Cretaceous: Alaska): stratigraphic implications for the region. PALAIOS 2014; 29:16–26.

15. Fiorillo AR. Cretaceous dinosaurs of Alaska: Implications for the origins of Beringia. In Blodgett RB, Stanley G, editors. The Terrane Puzzle: New perspectives on paleontology and stratigraphy from the North American Cordillera. Geological Society of America Special Paper 442. Boulder: Geological Society of America; 2008. p. 313–326.

16. Fiorillo AR, McCarthy PJ, Flaig PP, Brandlen E, Norton DW, Zippi P, Jacobs L, Gangloff RA. Paleontology and paleoenvironmental interpretation of the Kikak-Tegoseak Quarry (Prince Creek Formation: Late Cretaceous), northern Alaska: a multi-disciplinary study of a high-latitude ceratopsian dinosaur bonebed. In Ryan MJ, Chinnery-Allgeier BJ, Eberth DA, editors. New Perspectives on Horned Dinosaurs. Bloomington: Indiana University Press; 2010. p. 456–477.

17. Flaig PP, Fiorillo AR, McCarthy PJ. Dinosaur-bearing hyperconcentrated flows of Cretaceous Arctic Alaska: recurring catastrophic event beds on a distal paleopolar coastal plain. PALAIOS 2014; 29: 594–611.

18. Trop JM, Ridgway KD. Mesozoic and Cenozoic tectonic growth of southern Alaska: a sedimentary basin perspective. In Ridgway K D, Trop JM, Glen JMG, O’Neill JM, editors. Growth of a collisional continental margin: crustal evolution of southern Alaska. Geological Society of America Special Paper 431. Boulder: Geological Society of America; 2007. p. 55–94.

19. Koepp DQ, Trop JM, Benowitz JA, Layer PW, Zippi PA, Brueseke ME. Mid-Cretaceous volcanism and fluvial sedimentation in the Alaska Range Suture Zone: implications for the accretionary history of Wrangellia Composite Terrane. Geological Society of America Abstracts with Programs 2017; doi: 10.1130/abs/2017am-298406

20. Fiorillo AR, McCarthy PJ, Flaig PP. A multi-disciplinary perspective on habitat preferences among dinosaurs in a Cretaceous Arctic greenhouse world, North Slope, Alaska (Prince Creek Formation: lower Maastrichtian). Palaeogeography, Palaeoclimatology, Palaeoecology 2016; 441:377–389.

21. Miller TP, Smith RL. Late Quaternary caldera-forming eruptions in the eastern Aleutian arc, Alaska: Geology 1987; 15:434–438.

22. Beget J, Mason O, Anderson P. Age, extent and climatic significance of the c. 3400 BP Aniakchak tephra, western Alaska, USA. The Holocene 1992; 2:51–56.

23. Hubbard BR. 1931. A world inside a mountain, the new volcanic wonderland of the Alaska Peninsula, is explored: National Geographic Society 1931; 60:319–345.

24. Jaggar TA. The Volcano Letter 1932; 375:1–3.

25. Detterman RL, Miller TP, Yount ME, Wilson FH. Geologic map of the Chignik and Sutwik Island Quadrangles, Alaska. 1:250,000. United States Geological Survey Miscellaneous Investigations Series 1981; Map I-1229.

26. Wilson FH, Detterman RL, DuBois GD. Digital data for geologic framework of the Alaska Peninsula, southwest Alaska,and the Alaska Peninsula terrane: United States Geological Survey,Open-File Report 1999; OFR 99–317

27. Fiorillo AR, Kucinski R, Hamon T. New Frontiers, Old Fossils: recent dinosaur discoveries in Alaska National Parks. Alaska Park Science 2004; 3:4–9.

28. Fiorillo AR, McCarthy PJ, Kobayashi Y, Tanaka T. 2018. Duck-billed Dinosaurs (Hadrosauridae), Ancient Environments, and Cretaceous Beringia in Alaska’s National Parks. Alaska Park Science 2018; 17:20–27.

29. Hillhouse JW, Coe RS. Paleomagnetic data from Alaska. In: Plafker G., Berg H.C. (Eds.), Geology of Alaska. The Geology of North America, G-1. Boulder: Geological Society of America; 1994. p. 797–812.

30. Atwood WW. Geology and mineral resources of parts of the Alaska Peninsula. United States Geological Survey Bulletin 1911; 467:1–137.

31. Merritt RD, McGee DL. Depositional environments and resource potential of Cretaceous coal-bearing strata at Chignik and Herendeen Bay, Alaska Peninsula. Sedimentary Geology 1986; 49:21–49.

32. Detterman RL, Case JE, Miller JW, Wilson FH, Yount ME. Stratigraphic framework of the Alaska Peninsula. United States Geological Survey Bulletin 1996; 1969-A:1–74.

33. Fairchild DT. Paleoenvironments of the Chignik Formation, Alaska Peninsula [Master’s thesis]: Fairbanks: University of Alaska: 1977.

34. Detterman RL. Interpretation of depositional environments in the Chignik Formation, Alaska Peninsula. United States Geological Survey Circular 1978; 772-B:B62–B63.

35. Wahrhaftig C, Bartsch-Winkler S, Stricker GD. 1994. Coal in Alaska. In Plafker G, Berg HC, editors. Geology of Alaska. The Geology of North America, G-1. Boulder: Geological Society of America; 1994, p. 937–978.

36. Parrish JT, Spicer RA. Late Cretaceous terrestrial vegetation: A near-polar temperature curve. GEOLOGY 1988; 16: 22–25.

37. Spicer RA, Parrish JT. Latest Cretaceous woods of the central North Slope, Alaska. Palaeontology 1990; 33: 225–242.

38. Hollick A. The Upper Cretaceous floras of Alaska. United States Geological Survey Professional Paper 1930; 159: 1–123.

39. Ginsburg RN. Tidal Deposits: a casebook of recent examples and fossil counterparts. New York: Springer-Verlag; 1975.

40. MacEachern JA, Pemberton SG. Ichnological aspects of incised valley fill systems from the Viking Formation of the Western Canada Sedimentary Basin, Alberta, Canada. In Dalrymple RW, Boyd R, Zaitlin BA, editors. Incised Valley Systems: Origin and Sedimentary Sequences, SEPM Special Publication No. 51, Tulsa: SEPM; 1994. p. 129–158.

41. Reineck H-E, Singh IB. Depositional Sedimentary Environments. 2nd edition. New York: Springer-Verlag; 1980.

42. Dalrymple RW. 2010. Tidal depositional systems. In James NP, Dalrymple RW, editors. Facies Models 4. Canada: Geological Association of Canada. p. 201–232.

43. Currie P J, Badamgarav D, Koppelhus E.B. The first Late Cretaceous footprints from the Nemegt locality in the Gobi of Mongolia. Ichnos 2003; 10:1–13.

44. Lockley MG, Nadon G, Currie P J. A diverse dinosaur-bird footprint assemblage from the Lance Formation, Upper Cretaceous, eastern Wyoming: Implications for Ichnotaxonomy. Ichnos 2004; 11:229–249.

45. Diaz-Martinez I, Pereda-Suberbiola X, Perez-Lorente F, Ignacio Canudo J. Ichnotaxonomic review of large ornithopod dinosaur tracks: temporal and geographic implications. PLoS ONE 2015; 10: e0115477. doi: 10.1371/journal.pone.0115477 25674787

46. Milner AR, Vice GS, Harris JD, Lockley MG. Dinosaur tracks from the Upper Cretaceous Iron Springs Formation, Iron County, Utah. New Mexico Museum of Natural History and Science Bulletin 2006; 35:105–113.

47. McCrea RT, Lockley MG, Meyer CA. 2001. Global distribution of purported Ankylosaur track occurrences. In Carpenter K, editor. The Armored Dinosaurs. Bloomington: Indiana University Press. p. 413–454.

48. Sternberg CM. Dinosaur tracks from Peace River, British Columbia. Annual Report of the National Museum of Canada 1932; 59–85.

49. Lockley M. Tracking dinosaurs: a new look at an ancient world. Cambridge: Cambridge University Press; 1991.

50. Lockley M, Meyer C. Dinosaur tracks and other fossil footprints of Europe. New York: Columbia University Press; 2000.

51. Alexander RMcN. Estimates of speeds of dinosaurs. Nature 1976; 261:129–130.

52. Henderson D. Footprints, trackways, and hip heights of bipedal dinosaurs—testing hip height predictions with computer models. Ichnos 2003; 10:99–114.

53. Weems RE. A re-evaluation of the taxonomy of Newark Supergroup saurischian dinosaur tracks, using extensive statistical data from a recently exposed tracksite near Culpeper, Virginia: Richmond. Virginia Division of Mineral Resources 1992; 119:113–127.

54. Olsen PE, Smith JB, McDonald NG. Type material of the type species of the classic theropod footprint genera Eubrontes, Anchisauripus, and Grallator (Early Jurassic, Hartford and Deerfield basins, Connecticut and Massachusetts, U.S.A.). Journal of Vertebrate Paleontology 1998; 18;586–601.

55. Smith JB, Farlow JO. Osteometric approaches to trackmaker assignment for Newark Supergroup ichnogenera Grallator, Anchisauripus, and Eubrontes. In LeTourneau PM, Olsen PE, editors. The Great Rift Valleys of Pangea in Eastern North America, Vol. 2: Sedimentology, Stratigraphy, and Paleontology. New York: Columbia University Press; 2003. p. 273–292.

56. Lee Y-N. 1997. Bird and dinosaur footprints in the Woodbine Formation (Cenomanian), Texas. Cretaceous Research 1997; 18:849–864.

57. Elbroch M, Marks E. Bird Tracks and Sign. Mechanicsburg: Stackpole Books; 2001.

58. Brown R, Ferguson J, Lawrence M, Lee D. Tracks & signs of the birds of Britain & Europe. 2nd edition. London: Christopher Helm; 2003.

59. De Valais S, Melchor RN. Ichnotaxonomy of bird-like footprints: an example from the Late Triassic-Early Jurassic of northwest Argentina. Journal of Vertebrate Paleontology 2008; 28:145–159.

60. Currie PJ. Bird footprints from the Gething Formation (Aptian, Lower Cretaceous) of northeastern British Columbia, Canada. Journal of Vertebrate Paleontology 1981; 1:257–264.

61. Azuma Y, Arakawa Y, Tomida Y, Currie PJ. Early Cretaceous bird tracks from the Tetori Group, Fukui Prefecture, Japan. Memoir-Fukui Prefectural Dinosaur Museum 2002; p. 1–6.

62. Zonneveld JP, Zaim Y, Rizal Y, Ciochon RL, Bettis III EA, Aswan, Gunnell GF. 2011. Oligocene shorebird footprints, Kandi, Ombilin Basin, Sumatra. Ichnos 2011; 18:221–227.

63. Huh M, Lockley MG, Kim K-S, Kim J-Y, Gwak S-G. 2012. First reports of Aquatilavipes from Korea: New reports from the Yeosu islands archipelago. Ichnos 2012; 19:43–49.

64. Anfinson OA, Gulbranson E, Maxton J. A new ichnospecies of Aquatilavipes from the Albian-Cenomanian Dakota Formation of northwestern Utah. Geological Society of America Abstracts with Programs 2004; 36:67.

65. Lockley MG, Buckley LG, Foster JR, Kirkland JI, DeBlieux DD. First report of bird tracks (Aquatilavipes) from the Cedar Mountain Formation (Lower Cretaceous), eastern Utah. Palaeogeography, Palaeoclimatology, Palaeoecology 2015; 420:150–162.

66. Lee Y-N, Lee H-J, Han SY, Park E, Lee CH. A new dinosaur tracksite from the Lower Cretaceous Sanbukdong Formation of Gunsan City, South Korea. Cretaceous Research 2018; 91:208–216.

67. Nakajima J, Kobayashi Y, Tsogtbataar C, Tanaka T, Takasaki R, Khishigjav T, Currie PJ, Fiorillo AR. Dinosaur tracks at the Nemegt locality: Paleobiological and paleoenvironmental implications. Palaeogeography, Palaeoclimatology, Palaeoecology 2018; 494:147–159.

68. Fiorillo AR, Gangloff RA. The caribou migration model for Arctic hadrosaurs (Dinosauria: Ornithischia): A reassessment. Historical Biology 2001; 15:323–334.

69. Chinsamy A, Thomas DB, Tumarkin-Deratzian AR, Fiorillo AR. Hadrosaurs were perennial polar residents. The Anatomical Record 2012; 295:610–614. doi: 10.1002/ar.22428 22344791

70. Russell DA. The role of central Asia in dinosaurian biogeography. Canadian Journal of Earth Sciences 1993; 30:2002–2012.

71. Cifelli RL, Kirkland JI, Weil A, Deino AL, Kowallis BJ. High-precision 40Ar/39Ar geochronology and the advent of North America’s Late Cretaceous terrestrial fauna. Proceedings of the National Academy of Sciences of the United States of America 1997; 94:11,163–11,167. doi: 10.1073/pnas.94.1.11

72. Sereno PC. 2000. The fossil record, systematics and evolution of pachycephalosaurs and ceratopsians from Asia. In Benton MJ, Shishkin MA, Unwin DM, E. N. Kurochkin EN, editors. The age of dinosaurs in Russia and Mongolia. Cambridge: Cambridge University Press. p. 480–516

73. Zanno LE. A taxonomic and phylogenetic re-evaluation of Therizinosauria (Dinosauria: Maniraptora). Journal of Systematic Palaeontology 2010; 8:503–543.

74. Butler RJ, Barrett PM. Palaeoenvironmental controls on the distribution of Cretaceous herbivorous dinosaurs. Naturwissenschaften 2008; 95:1027–1032. doi: 10.1007/s00114-008-0417-5 18581087


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