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A Late Permian Ichthyofauna from the Zechstein Basin, Lithuania-Latvia Region
bioRxiv preprint doi: https://doi.org/10.1101/554998; this version posted February 20, 2019. The copyright holder for this preprint (which was not certified by peer review) is the author/funder, who has granted bioRxiv a license to display the preprint in perpetuity. It is made available under aCC-BY 4.0 International license. 1 A late Permian ichthyofauna from the Zechstein Basin, Lithuania-Latvia Region 2 3 Darja Dankina-Beyer1*, Andrej Spiridonov1,4, Ģirts Stinkulis2, Esther Manzanares3, 4 Sigitas Radzevičius1 5 6 1 Department of Geology and Mineralogy, Vilnius University, Vilnius, Lithuania 7 2 Chairman of Bedrock Geology, Faculty of Geography and Earth Sciences, University 8 of Latvia, Riga, Latvia 9 3 Department of Botany and Geology, University of Valencia, Valencia, Spain 10 4 Laboratory of Bedrock Geology, Nature Research Centre, Vilnius, Lithuania 11 12 *[email protected] (DD-B) 13 14 Abstract 15 The late Permian is a transformative time, which ended in one of the most 16 significant extinction events in Earth’s history. Fish assemblages are a major 17 component of marine foods webs. The macroevolution and biogeographic patterns of 18 late Permian fish are currently insufficiently known. In this contribution, the late Permian 19 fish fauna from Kūmas quarry (southern Latvia) is described for the first time. As a 20 result, the studied late Permian Latvian assemblage consisted of isolated 21 chondrichthyan teeth of Helodus sp., ?Acrodus sp., ?Omanoselache sp. and 22 euselachian type dermal denticles as well as many osteichthyan scales of the 23 Haplolepidae and Elonichthydae; numerous teeth of Palaeoniscus, rare teeth findings of 1 bioRxiv preprint doi: https://doi.org/10.1101/554998; this version posted February 20, 2019. -
New Insights on the Marseille-Aubagne Oligocene Basins (France)
Nury, D., Villeneuve, M., Arlhac, P., Gärtner, A., Linnemann, U., Châteauneuf, J.J., Riveline, J. and Hippolyte, J.C., 2016. New insights on the Marsei- lle-Aubagne Oligocene basins (France). Boletín Geológico y Minero, 127 (2/3): 483-498 ISSN: 0366-0176 New insights on the Marseille-Aubagne Oligocene basins (France) D. Nury(1), M. Villeneuve(2), P. Arlhac(3), A. Gärtner(4), U. Linnemann(4), J.J. Châteauneuf(5), J. Riveline(6) and J.C. Hippolyte(2) (1) MCF honoraire, 48, impasse des Micocoules, 13390, Auriol, France. [email protected] (2) Cerege, case 67, 3 place Victor Hugo, 13331, Marseille, France. [email protected] (3) MCF honoraire, 2208, chemin de Cuges, 83740, La Cadière d’Azur. [email protected] (4) Senckenberg Naturhistorische Sammlungen Dresden, Museum für Mineralogie und Geologie, Königsbrücker Landstrasse 159, D 01109, Dresden, Germany. Email:[email protected] [email protected] (5) BRGM. 8, Quai du Chatelet, 45000 , Orléans, France. [email protected] (6) UPMC – ISTEP UMR 7193, laboratoire de biominéralisations et environnements sédimentaires, case 116, 4, Place Jussieu, 75252 Paris Cedex 05. [email protected] ABSTRACT The Marseille-Aubagne Basins, which extend from Marseille to Roquevaire, occupy more than fifty per cent of the Marseille-Aubagne geological map, with approximately one million people living in this area. Despite this geological importance they are still poorly known. The first synthetic view was delivered in the 1935 geological map. Studied by Bonifay, the Quaternary deposits have been included in the 1969 geological map. Nevertheless, the Oligocene formations remained unmodified until Nury, who provided a lot of very detailed stratigraphic data. -
Alpine Orogeny the Geologic Development of the Mediterranean
Alpine Orogeny The geologic development of the Mediterranean region is driven by the Alpine-Himalayan orogeny, a suturing of Gondwana-derived terranes with the Eurasion craton. In broad terms, this is a Mesozoic and Cenozoic convergent zone that extends from the Spain to Southeastern Asia and may extend along the southwest Pacific as far as New Zealand (Rosenbaum and Lister, 2002). The Alpine orogeny was caused by the convergence of the African and European plates (Frisch, 1979; Tricart, 1984; Haas et al., 1995) with peak collisional phases occurring at different times: Cretaceous in the Eastern Alps and Tertiary in the Western Alps (Schmid et al., 2004). Note: prior to the opening of the Paleotethys sea, the Variscan orogenic belt developed in central Europe then the Laurussian and Gondwana converged in the Devonian and Late Carboniferous. Although the location of the suture Extent of the Alpine-Himalayan orogenic belt is not clear, the orogenic belt was extensive, (Rosenbaum and Lister, 2002). running from the Bohemian Massif to the Alpine-Carpathian-Dinarides belt (). The Paleotethys sea existed in the Triassic but closed in the early Mesozoic due to convergence along the Cimmerian (and Indosinian) suture zone. The Paleotethys (or Tethys I) has been described as a wedge- shaped ocean that opened to the east, separating Eurasia from Africa, India, and Australia (Laurasia and Gondwana). Very little evidence of the Paleotethys exists today which has caused some to question its existence (Meyerhoff and Eremenko, 1976) The Tethys opened as Pangea broke up in the Early Jurassic and Africa moved east relative to Europe. -
Developing a Geological Framework
21/2/12 GeolFrameworkPaper_postreview_v2acceptchanges_editorcomments New insights from 3D geological models at analogue CO2 storage sites in Lincolnshire and eastern Scotland, UK. Alison Monaghan1*, Jonathan Ford2, Antoni Milodowski2, David McInroy1, Timothy Pharaoh2, Jeremy Rushton2, Mike Browne1, Anthony Cooper2, Andrew Hulbert2 and Bruce Napier2 1 British Geological Survey, Murchison House, West Mains Road, Edinburgh, EH9 3LA, UK. 2 British Geological Survey, Kingsley Dunham Centre, Keyworth, Nottingham, NG12 5GG, UK. * Corresponding author (email [email protected] (Approx.15,600 words in total, 25 figures) SUMMARY: Subsurface 3D geological models of aquifer and seal rock systems from two contrasting analogue sites have been created as the first step in an investigation into methodologies for geological storage of carbon dioxide in saline aquifers. Development of the models illustrates the utility of an integrated approach using digital techniques and expert geological knowledge to further geological understanding. The models visualize a faulted, gently dipping Permo-Triassic succession in Lincolnshire and a complex faulted and folded Devono-Carboniferous succession in eastern Scotland. The Permo-Triassic is present in the Lincolnshire model to depths of -2 km OD, and includes the aquifers of the Sherwood Sandstone and Rotliegendes groups. Model-derived thickness maps test and refine Permian palaeogeography, such as the location of a carbonate reef and its associated seaward slope, and the identification of aeolian dunes. Analysis of borehole core samples established average 2D porosity values for the Rotliegendes (16%) and Sherwood Sandstone (20%) groups, and the Zechstein (5%) and Mercia Mudstone (<10%) groups, which are favourable for aquifer and seal units respectively. Core sample analysis has revealed a complex but well understood diagenetic history. -
Page Numbers in Italic, Eg 305, Refer to Figures
Index Page numbers in italic, e.g. 305, refer to figures. Page numbers in bold, e.g. 99, signify entries in tables. Aalen, modelled subsidence curves 305 Bourneville Ahun Basin 59 air-loaded tectonic subsidence curves 303 Albacete 466 modelled subsidence curves 304 Albarracin 466 Bowland Basin 45 Alcoroches 468 Brande Graben 77 Ales/Cevennes Basin 59 Bray Fault 337 Alps, Stephanian-Autunian magmatism 57 Bremen 51 Altmark 14 Bresse Graben 290 Anayet 442, 443 Brive Basin 59 Ancenis 104 Bronchales 468 Andross Fault 46, 53 Brousse Basin 59 Arag6n-Subordfi. Basin 442, 443 Burgundy Trough 296, 302 Aranaz 442 Burntisland 196 Armorica-Barrandia Terrane 2 Bute 196 Armorican Composite Terrane 43 Buxton 47 Armorican Massif 43, 95 age and thickness of strata 99, 100 Caherconlish 48 Carboniferous basins 104 Calatayud 468 transect 105-107 Caledonian Deformation Front 14, 140 Arran 196 Campanil 442 Arthur's Seat, Edinburgh 43, 44 Campsie Fells 196, 220 Asker Group sediments 17 Canfranc 442 Asta Graben 77, 160 Cardigan Bay/St George's Channel Basin, age and thickness Ateca 468 of strata 103 Atienza 466, 468, 469 Carlisle 196 Avalonia terrane 2, 14, 244 Castell6n de la Plana 466 Ayr 196, 200 Castleton 47 Central Graben, North Sea 14, 77, 160 Bad Kreuznach 56 age determinations 17 Bad Liebenstein 321 Central Irish Sea Basin 108 Bad Sachsa 55 age and thickness of strata 103 Bad Salzungen 321 Champotran, modelled subsidence curves 304 Bakewell 47 Chantonnay Basin 104 Ballybrood 48 Chart6w 394 Baltic Sea 261 Chateaulin 104 Baltic Shield 14 Cheshire Basin -
Ranges and Basins in the Iberian Peninsula: Their Contribution to the Present Topography
See discussions, stats, and author profiles for this publication at: https://www.researchgate.net/publication/241554530 Ranges and basins in the Iberian Peninsula: Their contribution to the present topography Article in Geological Society London Memoirs · January 2006 DOI: 10.1144/GSL.MEM.2006.032.01.13 CITATIONS READS 45 1,503 2 authors, including: Jaume Vergés Geosciences Barcelona (Geo3Bcn) CSIC 305 PUBLICATIONS 9,296 CITATIONS SEE PROFILE Some of the authors of this publication are also working on these related projects: Growth Strata in the Central Zagros fold-and-thrust belt, Dehdasht area View project MITE: Modeling the Iberian Topographic Evolution View project All content following this page was uploaded by Jaume Vergés on 21 May 2014. The user has requested enhancement of the downloaded file. Ranges and basins in the Iberian Peninsula: their contribution to the present topography JAUME VERGE´ S & MANEL FERNA` NDEZ Group of Dynamics of the Lithosphere (GDL), Institute of Earth Sciences ‘Jaume Almera’, CSIC, 08028 Barcelona, Spain (e-mail: [email protected]) Abstract: The Iberian Peninsula, at the western end of the Alpine–Himalayan Belt, displays a complex structure with mountain ranges of diverse structural trends and sedimentary basins between them. The Iberian Peninsula also shows an elevated mean topography, the highest in Europe. In this short paper, we investigate the Alpine evolution of the Iberian Peninsula since Mesozoic times, when Iberia was isolated as an independent plate. This occurred from Albian (formation of the northern plate boundary) to Oligocene times (end of the Pyrenean Orogeny). Iberia was squeezed between Africa and Europe during Tertiary times and all previously established Mesozoic extensional basins were inverted, as were some of the Hercynian structures. -
Integrated Approach for Sinkhole Evaluation and Evolution Prediction in the Central Ebro Basin (NE Spain) Óscar Pueyo Anchuela*, Andrés Pocoví Juan, Antonio M
International Journal of Speleology 46 (2) 237-249 Tampa, FL (USA) May 2017 Available online at scholarcommons.usf.edu/ijs International Journal of Speleology Off icial Journal of Union Internationale de Spéléologie Integrated approach for sinkhole evaluation and evolution prediction in the Central Ebro Basin (NE Spain) Óscar Pueyo Anchuela*, Andrés Pocoví Juan, Antonio M. Casas Sainz, Javier Gracia Abadías, and Carlos L. Liesa Carrera Grupo de Investigación Geotransfer, Instituto Universitario en Ciencias Ambientales Universidad de Zaragoza, Pedro Cerbuna, 12, 50009 Zaragoza, Spain Abstract: Evaluation of karst hazards benefits from the integration of different techniques, methodologies and approaches. Each one presents a different signature and is sensitive to certain indicators related to karst hazards. In some cases, detailed analysis permits the evaluation of representativeness either from isolated approaches or by means of integrated analyses. In this study, we present the evaluation of an area with high density of karstic collapses at different evolutionary stages through the integration of surficial, historical, geomorphological and geophysical data in order to finally define the evolutionary model for karst activity development. The obtained dataset permits to identify different steps in sinkhole evolution: (i) cavities and open sinkholes, (ii) filling of these cavities, with materials having different signatures, (iii) the progression from collapses to subsidence sinkholes and (iv) enlargement through collapses in marginal areas of previous sinkholes. The presence of different stages of this evolutionary model permits to determine their own signatures that can be of application in contexts where analysis cannot be so systematic and also to evaluate the definition of the marginal areas of previous sinkholes as the most hazardous sectors. -
On the Tectonic Origin of Iberian Topography
On the tectonic origin of Iberian topography A.M. Casas-Sainz a,?, G. de Vicente b a Departamento de Ciencias de la Tierra, Universidad de Zaragoza, Spain b Grupo de Tectonofísica Aplicada UCM. F.C. Geológicas, Universidad Complutense de Madrid, Spain a r t i c l e i n f o a b s t r a c t Article history: The present-day topography of the Iberian peninsula can be considered as the result of the MesozoicCenozoic– Received 28 January 2008 tectonic evolution of the Iberian plate (including rifting and basin formation during the Mesozoic and Accepted 26 January 2009 compression and mountain building processes at the borders and inner part of the plate, during the Tertiary, Available online xxxx followed by Neogene rifting on the Mediterranean side) and surface processes acting during the Quaternary. The northern-central part of Iberia (corresponding to the geological units of the Duero Basin, the Iberian Chain, Keywords: and the Central System) shows a mean elevation close to one thousand meters above sea level in average, some Iberia Planation surface hundreds of meters higher than the southern half of the Iberian plate. This elevated area corresponds to (i) the Landscape top of sedimentation in Tertiary terrestrial endorheic sedimentary basins (Paleogene and Neogene) and Meseta (ii) planation surfaces developed on Paleozoic and Mesozoic rocks of the mountain chains surrounding the Crustal thickening Tertiary sedimentary basins. Both types of surfaces can be found in continuity along the margins of some of the Tectonics Tertiary basins. The Bouguer anomaly map of the Iberian peninsula indicates negative anomalies related to thickening of the continental crust. -
Eunaseis: a Seismic Model for Moho and Crustal Structure in Europe, Greenland, and the North Atlantic Region
EUNAseis a seismic model for Moho and crustal structure in Europe, Greenland, and the North Atlantic region Artemieva, Irina; Thybo, Hans Published in: Tectonophysics DOI: 10.1016/j.tecto.2013.08.004 Publication date: 2013 Document version Publisher's PDF, also known as Version of record Citation for published version (APA): Artemieva, I., & Thybo, H. (2013). EUNAseis: a seismic model for Moho and crustal structure in Europe, Greenland, and the North Atlantic region. Tectonophysics, 609, 97-153. https://doi.org/10.1016/j.tecto.2013.08.004 Download date: 04. Oct. 2021 Tectonophysics 609 (2013) 97–153 Contents lists available at ScienceDirect Tectonophysics journal homepage: www.elsevier.com/locate/tecto Review Article EUNAseis: A seismic model for Moho and crustal structure in Europe, Greenland, and the North Atlantic region☆ Irina M. Artemieva ⁎, Hans Thybo IGN, University of Copenhagen, Denmark article info abstract Article history: We present a new digital crustal model for Moho depth and crustal structure in Europe, Greenland, Iceland, Received 27 November 2012 Svalbard, European Arctic shelf, and the North Atlantic Ocean (72W–62E, 30N–84N). Our compilation is based Received in revised form 18 July 2013 on digitization of original seismic profiles and Receiver Functions from ca. 650 publications which provides a Accepted 4 August 2013 dense regional data coverage. Exclusion of non-seismic data allows application of the database to potential Available online 15 August 2013 field modeling. EUNAseis model includes Vp velocity and thickness of five crustal layers, including the sedimen- tary cover, and Pn velocity. For each parameter we discuss uncertainties associated with theoretical limitations, Keywords: Moho regional data quality, and interpolation. -
Hydrocarbon Plays from West Poland: Zechstein Limestone and Main Dolomite
Hydrocarbon Plays from West Poland: Zechstein Limestone and Main Dolomite Paweł Zdanowski & Tomasz Solarski PGNiG SA (Polish Oli & Gas Company), Exploration and Production Branch Underexplored Plays - Part III 31-X-2018 & 01-XI-2018 Stavanger Hydrocarbon Plays from West Poland: Zechstein Limestone (Ca1) and Main Dolomite (Ca2) Presentation outline: Palaeogeography of Zechstein • Southern Permian Basin and Northern Permian Basin • Correlation of carbonate units between SBP and NPB Zechstein Limestone (Brońsko Gas Field) • Hydrocarbon Play. • Pattern Recognition from Seismic. Main Dolomite (BMB and LMG oil & gas fields) • Hydrocarbon Play. • Pattern Recognition from Seismic. • Analysis of Seismic Attributes. • Seismic Modeling. Late Permian Paleogeography from Blakely (2014) Tucker, 2016 After Scotese, 2002 European Southern Permian Basin Zechstein Sea Connected to Pantalassa Ocean 2000km to N/NE. Possible connection to Paleo-Tethys through the Polish Sub-Basin to the SE ?? Palaeo-latitude: 10-20°. Climate extremely arid. After Scotese, 2012 Sketch map of Permian sedimentary basin in north-west Europe Dziękuję za uwagę Stavanger Warsaw Millennium Atlas: Petroleum Geology of the Central and Northern North Sea, 2003 Polish Zechstein Basin ….stratigraphy Leine Na2 A2 Stassfurt Ca2 A1g Na1 A1d Werra Ca1 Wagner & Peryt. 1997 Słowakiewicz & Mikołajewski, 2009 Tucker, 2016 Comparison of the Zechstein development of the NPB with the classic SPB Evans et al. 2003 Madeleine et al. 2018 Zechstein Limestone – Ca1 (≈ Argyll Carbonate Member) Zechstein basin, showing the position of the Brandenburg-Wolsztyn-Pogorzela palaeo-High Basin facies of the Zechstein Limestone in Poland, showing the occurrence of isolated reefs related to the Brandenburg-Wolsztyn-Pogorzela palaeo-High. isolated reefs (rimmed platform) Peryt et al. -
A Comparison of the Iberian and Ebro Basins During the Permian and Triassic, Eastern Spain: a Quantitative Subsidence Modelling Approach
Tectonophysics 474 (2009) 160–183 Contents lists available at ScienceDirect Tectonophysics journal homepage: www.elsevier.com/locate/tecto A comparison of the Iberian and Ebro Basins during the Permian and Triassic, eastern Spain: A quantitative subsidence modelling approach Henar Vargas a, Jorge M. Gaspar-Escribano b, José López-Gómez c, Jan-Diederik Van Wees d, Sierd Cloetingh e, Raúl de La Horra c, Alfredo Arche c,⁎ a Repsol Exploración, S.A. Paseo de la Castellana 280, 28046 Madrid, Spain b E.T.S.I. Topografía, Geodesia y Cartografía, Universidad Politécnica de Madrid, Carretera de Valencia Km. 7, 28031 Madrid, Spain c Instituto de Geología Económica-Departamento de Estratigrafía, CSIC-UCM, Facultad de Geología, Universidad Complutense, 28040 Madrid, Spain d TNO-NITG, Princetonlaan 6, PO Box 80015, 3508 TA Utrecht, The Netherlands e Faculteit der Aardwetenschappen, Vrije Universiteit, De Boelelaan 1085, 1081 HV Amsterdam, The Netherlands ARTICLE INFO ABSTRACT Article history: The Permian–Triassic sediments of the Iberian Plate are a well studied case of classical Buntsandstein– Received 29 February 2008 Muschelkalk–Keuper facies, with good sedimentological interpretations and precise datings based on pollen Received in revised form 26 May 2008 and spore assemblages, ammonoids and foraminifera. Synrift–postrift cycles are recorded in these facies, but Accepted 9 June 2008 there are only a few studies of quantitative subsidence analysis (backstripping method) and only a previous Available online 14 June 2008 one using forward modelling for the quantification of synrift–postrift phases of this period. fi Keywords: Here we present the results obtained by the quantitative analysis of fourteen eld sections and oil-well electric fi Extensional basins log records in the Iberian and Ebro Basins, Spain. -
3D Seismic Reflection Data Reveal Syn-Depositional Halokinesis in The
This manuscript is a EarthArxiv preprint and had been submitted for publication in the AAPG Bulletin. Please note that this manuscript has not been peer-reviewed. Subsequent versions of this manuscript may, thus, have slightly different content. If accepted, the final version of this manuscript will be available via the “Peer-reviewed Publication DOI” link on the right- hand side of this webpage. Please feel free to contact any of the authors directly; We welcome your feedback. 1 3D seismic reflection data reveal syn-depositional halokinesis in the 2 Zechstein Supergroup (Lopingian), Central North Sea, UK 3 Amir Joffe 1*, Christopher A-L. Jackson2, Leonardo M. Pichel3 4 1. Basins Research Group (BRG), Department of Earth Science and Engineering, Imperial 5 College London, South Kensington Campus, SW7 2BP, UK 6 2. Department of Earth and Environmental Sciences, The University of Manchester, 7 Williamson Building, Oxford Road, Manchester, M13 9PL, UK 8 3. Department of Earth Science, University of Bergen, Allégaten 41, 5007, Bergen, 9 Norway 10 Abstract 11 Salt tectonics is typically caused by the flow of mobile evaporites in response to post- 12 depositional gravity gliding and/or differential loading by overburden sediments. This situation 13 is considerably more complex near the margins of salt basins, where carbonate and clastic rocks 14 may be deposited at the same time and interbedded with, more mobile, evaporite strata. In these 15 cases, syn-depositional salt flow may occur due to density differences in the deposited 16 lithologies, although our understanding of this process and related produces is relatively poor. 17 We here use 3D seismic reflection and borehole data from the Devil’s Hole Horst, West Central 18 Shelf, offshore UK to understand the genesis, geometry and kinematic of intra-Zechstein 19 Supergroup (Lopingian) minibasins and their effect on post-depositional salt deformation.