(Upper Cretaceous) of Extra-Carpathian Poland
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First Record of Non-Mineralized Cephalopod Jaws and Arm Hooks
Klug et al. Swiss J Palaeontol (2020) 139:9 https://doi.org/10.1186/s13358-020-00210-y Swiss Journal of Palaeontology RESEARCH ARTICLE Open Access First record of non-mineralized cephalopod jaws and arm hooks from the latest Cretaceous of Eurytania, Greece Christian Klug1* , Donald Davesne2,3, Dirk Fuchs4 and Thodoris Argyriou5 Abstract Due to the lower fossilization potential of chitin, non-mineralized cephalopod jaws and arm hooks are much more rarely preserved as fossils than the calcitic lower jaws of ammonites or the calcitized jaw apparatuses of nautilids. Here, we report such non-mineralized fossil jaws and arm hooks from pelagic marly limestones of continental Greece. Two of the specimens lie on the same slab and are assigned to the Ammonitina; they represent upper jaws of the aptychus type, which is corroborated by fnds of aptychi. Additionally, one intermediate type and one anaptychus type are documented here. The morphology of all ammonite jaws suggest a desmoceratoid afnity. The other jaws are identifed as coleoid jaws. They share the overall U-shape and proportions of the outer and inner lamellae with Jurassic lower jaws of Trachyteuthis (Teudopseina). We also document the frst belemnoid arm hooks from the Tethyan Maastrichtian. The fossils described here document the presence of a typical Mesozoic cephalopod assemblage until the end of the Cretaceous in the eastern Tethys. Keywords: Cephalopoda, Ammonoidea, Desmoceratoidea, Coleoidea, Maastrichtian, Taphonomy Introduction as jaws, arm hooks, and radulae are occasionally found Fossil cephalopods are mainly known from preserved (Matern 1931; Mapes 1987; Fuchs 2006a; Landman et al. mineralized parts such as aragonitic phragmocones 2010; Kruta et al. -
Schmitz, M. D. 2000. Appendix 2: Radioisotopic Ages Used In
Appendix 2 Radioisotopic ages used in GTS2020 M.D. SCHMITZ 1285 1286 Appendix 2 GTS GTS Sample Locality Lat-Long Lithostratigraphy Age 6 2s 6 2s Age Type 2020 2012 (Ma) analytical total ID ID Period Epoch Age Quaternary À not compiled Neogene À not compiled Pliocene Miocene Paleogene Oligocene Chattian Pg36 biotite-rich layer; PAC- Pieve d’Accinelli section, 43 35040.41vN, Scaglia Cinerea Fm, 42.3 m above base of 26.57 0.02 0.04 206Pb/238U B2 northeastern Apennines, Italy 12 29034.16vE section Rupelian Pg35 Pg20 biotite-rich layer; MCA- Monte Cagnero section (Chattian 43 38047.81vN, Scaglia Cinerea Fm, 145.8 m above base 31.41 0.03 0.04 206Pb/238U 145.8, equivalent to GSSP), northeastern Apennines, Italy 12 28003.83vE of section MCA/84-3 Pg34 biotite-rich layer; MCA- Monte Cagnero section (Chattian 43 38047.81vN, Scaglia Cinerea Fm, 142.8 m above base 31.72 0.02 0.04 206Pb/238U 142.8 GSSP), northeastern Apennines, Italy 12 28003.83vE of section Eocene Priabonian Pg33 Pg19 biotite-rich layer; MASS- Massignano (Oligocene GSSP), near 43.5328 N, Scaglia Cinerea Fm, 14.7 m above base of 34.50 0.04 0.05 206Pb/238U 14.7, equivalent to Ancona, northeastern Apennines, 13.6011 E section MAS/86-14.7 Italy Pg32 biotite-rich layer; MASS- Massignano (Oligocene GSSP), near 43.5328 N, Scaglia Cinerea Fm, 12.9 m above base of 34.68 0.04 0.06 206Pb/238U 12.9 Ancona, northeastern Apennines, 13.6011 E section Italy Pg31 Pg18 biotite-rich layer; MASS- Massignano (Oligocene GSSP), near 43.5328 N, Scaglia Cinerea Fm, 12.7 m above base of 34.72 0.02 0.04 206Pb/238U -
Reconstruction of Belemnite Evolution Using Formal Concept Analysis
Reconstruction of Belemnite Evolution Using Formal Concept Analysis Radim Belohlavek,1,2∗ Martin Koˇst’´ak3†, and Petr Osicka2 1State University of New York at Binghamton, Binghamton, NY [email protected] 2Palacky University, Olomouc, Czech Republic 3Charles University, Prague, Czech Republic Abstract The paper presents results on using for- mal concept analysis in the problem of identification of taxa and reconstructing evolution from paleontological data. We present results of experiments performed with belemnites—a group of extinct marine cephalophods which seems particularly suit- Figure 1: Schematic sketch of belemnite body with able for such a purpose. We demonstrate position of the internal shell. Apical grey part repre- that the methods of formal concept analysis sents the rostrum. are capable of revealing taxa and relation- ships among them which are relevant from a paleobiological point of view. Coleoid cephalopods played an important role in the Cretaceous ecosystem in both the Northern and Southern hemispheres. Inside this diverse group, es- 1 Introduction and Problem Setting pecially belemnites were a common part of nectonic An important system-theoretic concept is that of a assemblages in marine shallower water ecosystems. taxonomy, i.e. a classification scheme arranged in They belong to coleoids with internal shell. The ex- a hierarchical structure. Biological taxonomies and ternal morphology of belemnites resembles partly Re- the methods of devising them are perhaps the best cent squids and their behavior—larger sets of spec- known and most widely studied. There exist sev- imens concentrated probably during spawning acts. eral approaches to biological classification, with phy- However, the internal shell characteristic is strongly logenetics (cladistics) and phenetics (numerical taxon- different in both, non related cephalopod groups. -
Paleontology and Stratigraphy of Upper Coniacianemiddle
University of Nebraska - Lincoln DigitalCommons@University of Nebraska - Lincoln USGS Staff -- Published Research US Geological Survey 2005 Paleontology and stratigraphy of upper Coniacianemiddle Santonian ammonite zones and application to erosion surfaces and marine transgressive strata in Montana and Alberta W. A. Cobban U.S. Geological Survey T. S. Dyman U.S. Geological Survey, [email protected] K. W. Porter Montana Bureau of Mines and Geology Follow this and additional works at: https://digitalcommons.unl.edu/usgsstaffpub Part of the Earth Sciences Commons Cobban, W. A.; Dyman, T. S.; and Porter, K. W., "Paleontology and stratigraphy of upper Coniacianemiddle Santonian ammonite zones and application to erosion surfaces and marine transgressive strata in Montana and Alberta" (2005). USGS Staff -- Published Research. 367. https://digitalcommons.unl.edu/usgsstaffpub/367 This Article is brought to you for free and open access by the US Geological Survey at DigitalCommons@University of Nebraska - Lincoln. It has been accepted for inclusion in USGS Staff -- Published Research by an authorized administrator of DigitalCommons@University of Nebraska - Lincoln. Cretaceous Research 26 (2005) 429e449 www.elsevier.com/locate/CretRes Paleontology and stratigraphy of upper Coniacianemiddle Santonian ammonite zones and application to erosion surfaces and marine transgressive strata in Montana and Alberta W.A. Cobban a,1, T.S. Dyman b,*, K.W. Porter c a US Geological Survey, Denver, CO 80225, USA b US Geological Survey, Denver, CO 80225, USA c Montana Bureau of Mines and Geology, Butte, MT 59701, USA Received 28 September 2004; accepted in revised form 17 January 2005 Available online 21 June 2005 Abstract Erosional surfaces are present in middle and upper Coniacian rocks in Montana and Alberta, and probably at the base of the middle Santonian in the Western Interior of Canada. -
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Acta Geologica Polonica, Vol. 54 (2004), No.4, pp. 587-596 Biostratigraphy of the Santonian in the SW margin of the Holy Cross Mountains near Lipnik, a potential reference section for extra -Carpathian Poland ZBIGNIEW REMIN Institute of Geology, Warsaw University, Zwirki i Wigwy 93, PL-02-089 Wm:l'zawa, Poland. E-mail: [email protected] ABSTRACT: REMIN, Z. 2004. Biostratigraphy of the Santonian in the SW margin of the Holy Cross Mountains near Lipnik, a poten tial reference section for extra-Carpathians Poland. Acta Geologica Polonica, 54 (4), 587-596. Warszawa. The set of outcrops near the village of Kije, on the SW margin of the Holy Cross Mountains provides a nearly com plete Santonian succession that has a great potential to become a Santonian reference section in Poland. The Coniacian/Santonian boundary is defined here by the first occurrence (FO) of the inoceramid bivalve species Cladoceramus undulatoplicatus (ROEMER 1852). The uppermost Santonian is characterized by common Sphenoceramus patootensiformis (SEITZ 1965). The top of the stage (and the base of the Campanian Stage) is docu mented by the last occurrence (LO) of the crinoid species Marsupites testudinarius (SCHLOTHEIM 1820). The substage division of the Santonian is based on inoceramids, with the lower boundary of the Middle Santonian indicated by the LO of Cladoceramus undulatoplicatus and the base of the Upper Santonian by the FO of representatives of Cordiceramus muelleri (PETRAS CHECK 1906) group. Keywords: Cretaceous, Santonian, Stratigraphy, Biostratigraphy, Magnetostratigraphy, Ammonites, Inoceramid bivalves, Crinoids. INTRODUCTION study, the Lipnik section may become a standard reference section for the Santonian in extra-Carpathians Poland. -
Palaeontological Highlights of Austria
© Österreichische Geologische Gesellschaft/Austria; download unter www.geol-ges.at/ und www.biologiezentrum.at Mitt. Österr. Geol. Ges. ISSN 0251-7493 92 (1999) 195-233 Wien, Juli 2000 Palaeontological Highlights of Austria WERNER E. PILLER1, GUDRUN DAXNER-HÖCK2, DARYL P DOMNING3, HOLGER C. FORKE4, MATHIAS HARZHAUSER2, BERNHARD HUBMANN1, HEINZ A. KOLLMANN2, JOHANNA KOVAR-EDER2, LEOPOLD KRYSTYN5, DORIS NAGEL5, PETER PERVESLER5, GERNOT RABEDER5, REINHARD ROETZEL6, DIETHARD SANDERS7, HERBERT SUMMESBERGER2 28 Figures and 1 Table Introduction Besides Zeapora gracilis, distinguished by large rounded cortical filaments, Pseudolitanaia graecensis and Pseu The oldest known fossils in Austria date back into the dopalaeoporella lummatonensis occur (Fig. 3). Pseudolitan Ordovician. From this time on a broadly continuous fossil aia graecensis is built up of straight thalli containing club- record is preserved up to the Holocene. Since an encyclo shaped filaments and Pseudopalaeoporella lummatonensis paedic or monographic presentation is impossible within is characterized by a typically poorly-calcified medullar this volume, nine case studies of different stratigraphic lev zone and delicate cortical filaments. els (Fig. 1) were selected to call attention to this remarkably There are two localities known with autochthonous algal good fossil documentation. These case studies include occurrences in the Graz Palaeozoic. One is characterized records on invertebrate fossils from several time slices from by Pseudopalaeoporella lummatonensis with dispersed the Late Palaeozoic to the Miocene, as well as on verte thalli of Pseudolitanaia. Contrary to all expectations, these brates from the Miocene and Pleistocene and on plant algae are found in marly lithologies suggesting very bad fossils from the Devonian and Early Miocene. This selection environmental conditions for photoautotrophic organisms. -
General Trends in Predation and Parasitism Upon Inoceramids
Acta Geologica Polonica, Vol. 48 (1998), No.4, pp. 377-386 General trends in predation and parasitism upon inoceramids PETER 1. HARRIES & COLIN R. OZANNE Department of Geology, University of South Florida, 4202 E. Fowler Ave., SeA 528, Tampa, FL 33620-5201 USA. E-mail: [email protected] ABSTRACT: HARRIES, P.I. & OZANNE, C.R. 1998. General trends in predation and parasitism upon inoceramids. Acta Geologica Polonica, 48 (4), 377-386. Warszawa. Inoceramid bivalves have a prolific evolutionary history spanning much of the Mesozoic, but they dra matically declined 1.5 Myr prior to the Cretaceous-Tertiary boundary. Only the enigmatic genus Tenu ipteria survived until the terminal Cretaceous event. A variety of hypotheses have attempted to expla in this disappearance. This study investigates the role that predation and parasitism may have played in the inoceramids' demise. Inoceramids show a range of predatory and parasitic features recorded in their shells ranging from extremely rare bore holes to the parasite-induced Hohlkehle. The stratigraphic record of these features suggests that they were virtually absent in inoceramids prior to the Late Turonian and became increasingly abundant through the remainder of the Cretaceous. These results suggest that predation and parasitism may have played a role in the inoceramid extinction, but more rigorous, quantitative data are required to test this hypothesis further. Probably the C011lmonest death for many animals is to be ous-Tertiary boundary (KAUFFMAN 1988). The mar eaten by something else. ked demise of such an important group has led to the C. S. Elton (1927) formulation of a wide range of hypotheses to explain this phenomenon. -
Mesa Verde National Park Paleontological Resource Inventory (Non-Sensitive Version)
National Park Service U.S. Department of the Interior Natural Resource Stewardship and Science Mesa Verde National Park Paleontological Resource Inventory (Non-Sensitive Version) Natural Resource Report NPS/MEVE/NRR—2017/1550 ON THE COVER An undescribed chimaera (ratfish) egg capsule of the ichnogenus Chimaerotheca found in the Cliff House Sandstone of Mesa Verde National Park during the work that led to the production of this report. Photograph by: G. William M. Harrison/NPS Photo (Geoscientists-in-the-Parks Intern) Mesa Verde National Park Paleontological Resources Inventory (Non-Sensitive Version) Natural Resource Report NPS/MEVE/NRR—2017/1550 G. William M. Harrison,1 Justin S. Tweet,2 Vincent L. Santucci,3 and George L. San Miguel4 1National Park Service Geoscientists-in-the-Park Program 2788 Ault Park Avenue Cincinnati, Ohio 45208 2National Park Service 9149 79th St. S. Cottage Grove, Minnesota 55016 3National Park Service Geologic Resources Division 1849 “C” Street, NW Washington, D.C. 20240 4National Park Service Mesa Verde National Park PO Box 8 Mesa Verde CO 81330 November 2017 U.S. Department of the Interior National Park Service Natural Resource Stewardship and Science Fort Collins, Colorado The National Park Service, Natural Resource Stewardship and Science office in Fort Collins, Colorado, publishes a range of reports that address natural resource topics. These reports are of interest and applicability to a broad audience in the National Park Service and others in natural resource management, including scientists, conservation and environmental constituencies, and the public. The Natural Resource Report Series is used to disseminate comprehensive information and analysis about natural resources and related topics concerning lands managed by the National Park Service. -
Synecology of an Unusual Late Cretaceous Inoceramid-Spondylid Association from Northern Italy (*)
Ann. Mus. civ. Rovereto Sez.: Arch., St., Sc. nat. Vol. 11 (1995) 327-338 1996 ANNIE V. DHONDT & IGINIO DIENI SYNECOLOGY OF AN UNUSUAL LATE CRETACEOUS INOCERAMID-SPONDYLID ASSOCIATION FROM NORTHERN ITALY (*) NNIE HONDT GINIO IENI Abstract - A V. D & I D - Synecology of an unusual Late Cretaceous inoceramid-spondylid association from Northern Italy. A large specimen of the Santonian inoceramid Cladoceramus undulatoplicatus (F. ROEMER) was found in the Scaglia Rossa Veneta formation at Passo del Brocon, Trento, N. Italy. Both valves of this inoceramid are covered with numerous iso-oriented specimens of Spondylus fimbriatus GOLDFUSS. The distribution of the spondylids is explained by the upright position of the living inoceramid specimen. Key words: Bivalvia, Inoceramidae, Spondylidae, Santonian, Northern Italy, Palaeoecology. NNIE HONDT GINIO IENI Riassunto - A V. D & I D - Sinecologia di una inconsueta associazione inoceramo-spondili nel Cretaceo superiore dell'Italia settentrionale. Nella Scaglia Rossa Veneta di età santoniana di Passo del Brocon (Trento) è stato rinvenuto un grande esemplare di Cladoceramus undulatoplicatus (F. ROEMER). Entrambe le valve di questo inoceramide sono rivestite di numerosi esemplari isorientati di Spondylus fimbriatus GOLDFUSS. La distribuzione degli spondilidi permette di ipotizzare per linoceramide una posizione di vita verticale. Parole chiave: Bivalvia, Inoceramidae, Spondylidae, Santoniano, Italia settentrionale, Paleoecologia. (*) This paper was presented at the Second International Congress on Palaeoecology (Nanjing, China, August 30 - September 3, 1991), the Proceedings of which have not been published. Work supported by the Italian M.U.R.S.T. (grants to I. Dieni). 327 INTRODUCTION When studying the ecology of organisms extinct to-day it is often difficult to understand their life habits. -
Biostratigraphic Data from Upper Cretaceous Formations— Eastern Wyoming, Central Colorado, and Northeastern New Mexico
Biostratigraphic Data from Upper Cretaceous Formations— Eastern Wyoming, Central Colorado, and Northeastern New Mexico By E.A. Merewether, W.A. Cobban, and J.D. Obradovich CONIACIAN EPEIRIC SEA Pamphlet to accompany Scientific Investigations Map 3175 U.S. Department of the Interior U.S. Geological Survey U.S. Department of the Interior KEN SALAZAR, Secretary U.S. Geological Survey Marcia K. McNutt, Director U.S. Geological Survey, Reston, Virginia: 2011 About USGS Products For product and ordering information: World Wide Web: http://www.usgs.gov/pubprod Telephone: 1-888-ASK-USGS For more information on the USGS—the Federal source for science about the Earth, its natural and living resources, natural hazards, and the environment: World Wide Web: http://www.usgs.gov Telephone: 1-888-ASK-USGS About this Product Publishing support provided by Denver Science Publishing Network For more information concerning this publication, contact: Center Director, USGS Central Mineral and Environmental Resources Science Center Box 25046, Mail stop 973 Denver, CO 80225 (303) 236-1562 or visit the Central Mineral and Environmental Resources Science Center Web site at: http://minerals.cr.usgs.gov Suggested citation: Merewether, E.A., Cobban, W.A., and Obradovich, J.D., 2011, Biostratigraphic data from Upper Cretaceous formations—eastern Wyoming, central Colorado, and northeastern New Mexico: U.S. Geological Survey Scientific Investigations Map 3175, 2 sheets, pamphlet, 10 p. Any use of trade, product, or firm names is for descriptive purposes only and does not imply endorsement by the U.S. Government. Although this report is in the public domain, permission must be secured from the individual copyright owners to reproduce any copyrighted materials contained within this report. -
Author-Title Index
AUTHOR-TITLE INDEX A ___. Paleoecology of cyclic sediments of the lower Green River Formation, central Utah. 1969. 16(1):3- Ahlborn, R. C. Mesozoic-Cenozoic structural develop 95. ment of the Kern Mountains, eastern Nevada-western Utah. 1977. 24(2):117-131. ___ and J. K. Rigby. Studies for students no. 10: Ge ologic guide to Provo Canyon and Weber Canyon, Alexander, D. W. Petrology and petrography of the Bridal Veil Limestone Member of the Oquirrh Formation at central Wasatch Mountains, Utah. 1980. 27(3):1-33. Cascade Mountain, Utah. 1978. 25(3):11-26. ___. See Chamberlain, C. K. 1973. 20(1):79-94. Anderson, R. E. Quaternary tectonics along the inter ___. See George, S. E. 1985. 32(1):39-61. mountain seismic belt south of Provo, Utah. 1978. ___. See Johnson, B. T. 1984. 31(1):29-46. 25(1):1-10. ___. See Young, R. B. 1984. 31(1):187-211. Anderson, S. R. Stratigraphy and structure of the Sunset Bagshaw, L. H. Paleoecology of the lower Carmel Forma- Peak area near Brighton, Utah. 1974. 21(1):131-150. tion of the San Rafael Swell, Emery County, Utah. Anderson, T. C. Compound faceted spurs and recurrent 1977. 24(2):51-62. movement in the Wasatch fault zone, north central Bagshaw, R. L. Foraminiferal abundance related to bento Utah. 1977. 24(2):83-101. nitic ash beds in the Tununk Member of the Mancos Armstrong, R. M. Environmental geology of the Provo Shale (Cretaceous) in southeasternUtah. 1977. Orem area. 1975. 22(1):39-67. 24(2):33-49. -
Composite Biostratigraphic Outcrop Sections for Cretaceous Formations
U.S. Department of the Interior Open-File Report 2015–1087 U.S. Geological Survey Pamphlet accompanies map MONTANA WYOMING WYOMING UTAH 116° 110° 104° Table 1. Section number, geographic area, cadastral locations, nearby locality, and principal sources of data. 135 miles 108 miles 114 miles 136 miles EXPLANATION A Section Geographic area Principal sources of data 49° CANADA A' 72 miles Cadastral location(s) Nearby locality number UNITED STATES 6 A Conglomerate or breccia Disconformity—In strata 1 East Glacier Park 102 miles Cumberland Gap area—Lincoln County, Wyo. 1 Southeastern Glacier National Park and adjacent areas, Mont. T. 29–32 N., R. 11–13 W. East Glacier Park Rice and Cobban, 1977 Disconformity—In stratigraphic nomenclature Sandstone * * * * 5 Paleocene 2 Drummond area, Mont. T. 10–11 N., R. 10–13 W. Drummond Gwinn, 1961and 1965 Tentative correlation of disconformities MONTANA Sandstone with shale partings Northern Jackson Hole—Teton County, Wyo. Fort Union Formation 3 Pioneer Mountains, Lima Peaks, Tendoy Mountains, Mont. T. 4–15 S., R. 8–14 W. Lima Dyman, Porter, and others, 1995 2 Drummond Stage boundary—In column for stages; queried where approximate FEET 4 Cinnabar Mountain area, Mont. T. 8 S., R. 7 E. Gardiner Tysdal and others, 1990; Fraser and others, 1969 Sandstone, calcareous Late Cretaceous and Paleocene 0 Correlation of stage boundaries 2 * * * 88 miles 5 Northern Jackson Hole, Wyo. T. 42–45 N., R. 112–114 W. Jackson Love and others, 1948; Love, 1956 4 Nonmarine strata Pinyon Conglomerate 3 Gardiner Siltstone Drummond area—Granite and Powell Counties, Mont. Lima FEET 6 Cumberland Gap area, Wyo.