Devonian, Oil Reservoirs, Thirtyone Formation, Permian Basin, West
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Chapter 2 Paleozoic Stratigraphy of the Grand Canyon
CHAPTER 2 PALEOZOIC STRATIGRAPHY OF THE GRAND CANYON PAIGE KERCHER INTRODUCTION The Paleozoic Era of the Phanerozoic Eon is defined as the time between 542 and 251 million years before the present (ICS 2010). The Paleozoic Era began with the evolution of most major animal phyla present today, sparked by the novel adaptation of skeletal hard parts. Organisms continued to diversify throughout the Paleozoic into increasingly adaptive and complex life forms, including the first vertebrates, terrestrial plants and animals, forests and seed plants, reptiles, and flying insects. Vast coal swamps covered much of mid- to low-latitude continental environments in the late Paleozoic as the supercontinent Pangaea began to amalgamate. The hardiest taxa survived the multiple global glaciations and mass extinctions that have come to define major time boundaries of this era. Paleozoic North America existed primarily at mid to low latitudes and experienced multiple major orogenies and continental collisions. For much of the Paleozoic, North America’s southwestern margin ran through Nevada and Arizona – California did not yet exist (Appendix B). The flat-lying Paleozoic rocks of the Grand Canyon, though incomplete, form a record of a continental margin repeatedly inundated and vacated by shallow seas (Appendix A). IMPORTANT STRATIGRAPHIC PRINCIPLES AND CONCEPTS • Principle of Original Horizontality – In most cases, depositional processes produce flat-lying sedimentary layers. Notable exceptions include blanketing ash sheets, and cross-stratification developed on sloped surfaces. • Principle of Superposition – In an undisturbed sequence, older strata lie below younger strata; a package of sedimentary layers youngs upward. • Principle of Lateral Continuity – A layer of sediment extends laterally in all directions until it naturally pinches out or abuts the walls of its confining basin. -
New Siberian Islands Archipelago)
Detrital zircon ages and provenance of the Upper Paleozoic successions of Kotel’ny Island (New Siberian Islands archipelago) Victoria B. Ershova1,*, Andrei V. Prokopiev2, Andrei K. Khudoley1, Nikolay N. Sobolev3, and Eugeny O. Petrov3 1INSTITUTE OF EARTH SCIENCE, ST. PETERSBURG STATE UNIVERSITY, UNIVERSITETSKAYA NAB. 7/9, ST. PETERSBURG 199034, RUSSIA 2DIAMOND AND PRECIOUS METAL GEOLOGY INSTITUTE, SIBERIAN BRANCH, RUSSIAN ACADEMY OF SCIENCES, LENIN PROSPECT 39, YAKUTSK 677980, RUSSIA 3RUSSIAN GEOLOGICAL RESEARCH INSTITUTE (VSEGEI), SREDNIY PROSPECT 74, ST. PETERSBURG 199106, RUSSIA ABSTRACT Plate-tectonic models for the Paleozoic evolution of the Arctic are numerous and diverse. Our detrital zircon provenance study of Upper Paleozoic sandstones from Kotel’ny Island (New Siberian Island archipelago) provides new data on the provenance of clastic sediments and crustal affinity of the New Siberian Islands. Upper Devonian–Lower Carboniferous deposits yield detrital zircon populations that are consistent with the age of magmatic and metamorphic rocks within the Grenvillian-Sveconorwegian, Timanian, and Caledonian orogenic belts, but not with the Siberian craton. The Kolmogorov-Smirnov test reveals a strong similarity between detrital zircon populations within Devonian–Permian clastics of the New Siberian Islands, Wrangel Island (and possibly Chukotka), and the Severnaya Zemlya Archipelago. These results suggest that the New Siberian Islands, along with Wrangel Island and the Severnaya Zemlya Archipelago, were located along the northern margin of Laurentia-Baltica in the Late Devonian–Mississippian and possibly made up a single tectonic block. Detrital zircon populations from the Permian clastics record a dramatic shift to a Uralian provenance. The data and results presented here provide vital information to aid Paleozoic tectonic reconstructions of the Arctic region prior to opening of the Mesozoic oceanic basins. -
Plate Tectonic Regulation of Global Marine Animal Diversity
Plate tectonic regulation of global marine animal diversity Andrew Zaffosa,1, Seth Finneganb, and Shanan E. Petersa aDepartment of Geoscience, University of Wisconsin–Madison, Madison, WI 53706; and bDepartment of Integrative Biology, University of California, Berkeley, CA 94720 Edited by Neil H. Shubin, The University of Chicago, Chicago, IL, and approved April 13, 2017 (received for review February 13, 2017) Valentine and Moores [Valentine JW, Moores EM (1970) Nature which may be complicated by spatial and temporal inequities in 228:657–659] hypothesized that plate tectonics regulates global the quantity or quality of samples (11–18). Nevertheless, many biodiversity by changing the geographic arrangement of conti- major features in the fossil record of biodiversity are consis- nental crust, but the data required to fully test the hypothesis tently reproducible, although not all have universally accepted were not available. Here, we use a global database of marine explanations. In particular, the reasons for a long Paleozoic animal fossil occurrences and a paleogeographic reconstruction plateau in marine richness and a steady rise in biodiversity dur- model to test the hypothesis that temporal patterns of continen- ing the Late Mesozoic–Cenozoic remain contentious (11, 12, tal fragmentation have impacted global Phanerozoic biodiversity. 14, 19–22). We find a positive correlation between global marine inverte- Here, we explicitly test the plate tectonic regulation hypothesis brate genus richness and an independently derived quantitative articulated by Valentine and Moores (1) by measuring the extent index describing the fragmentation of continental crust during to which the fragmentation of continental crust covaries with supercontinental coalescence–breakup cycles. The observed posi- global genus-level richness among skeletonized marine inverte- tive correlation between global biodiversity and continental frag- brates. -
The Geologic Evolution of the Black Warrior Detrital Basin. Robert Ehrlich Louisiana State University and Agricultural & Mechanical College
Louisiana State University LSU Digital Commons LSU Historical Dissertations and Theses Graduate School 1965 The Geologic Evolution of the Black Warrior Detrital Basin. Robert Ehrlich Louisiana State University and Agricultural & Mechanical College Follow this and additional works at: https://digitalcommons.lsu.edu/gradschool_disstheses Recommended Citation Ehrlich, Robert, "The Geologic Evolution of the Black Warrior Detrital Basin." (1965). LSU Historical Dissertations and Theses. 1070. https://digitalcommons.lsu.edu/gradschool_disstheses/1070 This Dissertation is brought to you for free and open access by the Graduate School at LSU Digital Commons. It has been accepted for inclusion in LSU Historical Dissertations and Theses by an authorized administrator of LSU Digital Commons. For more information, please contact [email protected]. This dissertation has heen microfilmed exactly as received 66-726 EHRLICH, Robert, 1936— THE GEOLOGIC EVOLUTION OF THE BLACK WARRIOR DETRITAL BASIN. Louisiana State University, Ph.D., 1965 G eology University Microfilms, Inc., Ann Arbor, Michigan THE GEOLOGIC EVOLUTION OF THE BLACK WARRIOR DETRITAL BASIN A Dissertation Submitted to the Graduate Faculty of the Louisiana State University and Agricultural and Mechanical College in partial fulfillment of the requirements for the degree of Doctor of philosophy in The Department of Geology by Robert Ehrlich B.A., University of Minnesota, 1958 M.S., Louisiana State University, 1961 August, 1965 ACKNOWLEDGMENTS So many persons have given aid and encouragement during the progress of this problem that I approach these acknow ledgments with trepidations concerning possible omissions. Conspicuous, however, is the importance of the teaching and advice of Dr. John C. Ferm who, besides being respon sible for that which is worthwhile in my training as a sedimentologist, has provided me with a model of high pro fessional integrity. -
The Geologic Time Scale Is the Eon
Exploring Geologic Time Poster Illustrated Teacher's Guide #35-1145 Paper #35-1146 Laminated Background Geologic Time Scale Basics The history of the Earth covers a vast expanse of time, so scientists divide it into smaller sections that are associ- ated with particular events that have occurred in the past.The approximate time range of each time span is shown on the poster.The largest time span of the geologic time scale is the eon. It is an indefinitely long period of time that contains at least two eras. Geologic time is divided into two eons.The more ancient eon is called the Precambrian, and the more recent is the Phanerozoic. Each eon is subdivided into smaller spans called eras.The Precambrian eon is divided from most ancient into the Hadean era, Archean era, and Proterozoic era. See Figure 1. Precambrian Eon Proterozoic Era 2500 - 550 million years ago Archaean Era 3800 - 2500 million years ago Hadean Era 4600 - 3800 million years ago Figure 1. Eras of the Precambrian Eon Single-celled and simple multicelled organisms first developed during the Precambrian eon. There are many fos- sils from this time because the sea-dwelling creatures were trapped in sediments and preserved. The Phanerozoic eon is subdivided into three eras – the Paleozoic era, Mesozoic era, and Cenozoic era. An era is often divided into several smaller time spans called periods. For example, the Paleozoic era is divided into the Cambrian, Ordovician, Silurian, Devonian, Carboniferous,and Permian periods. Paleozoic Era Permian Period 300 - 250 million years ago Carboniferous Period 350 - 300 million years ago Devonian Period 400 - 350 million years ago Silurian Period 450 - 400 million years ago Ordovician Period 500 - 450 million years ago Cambrian Period 550 - 500 million years ago Figure 2. -
Teixeira Et Al Paleoproterozoic Record.Pdf
2019 ASGBC 2019 Annual Symposium on Geology of Brazil and China The Paleoproterozoic record of the São Francisco Craton Paleocontinent and Late Paleoproterozoic to Neoproterozoic covers Field Workshop Brazil, 13-25 August, 2019 W. Teixeira (IGc-USP), F. Chemale Jr. (PPGEO- UNISINOS), E. P. Oliveira (IG-UNICAMP) (Organizers) São Paulo, August - 2019 2019 ASGBC 2019 Annual Symposium on Geology of Brazil and China Institutional support: 2019 ASGBC 2019 Annual Symposium on Geology of Brazil and China Field trip 1 – The Mineiro belt and the Quadrilátero Ferrífero, Southern São Francisco Craton by W. Teixeira, E. Oliveira, F. Alkmim, L. Seixas Field workshop 1 Brazil, 13-18 August, 2019 2019 ASGBC 2019 Annual Symposium on Geology of Brazil and China 1. Introduction The field workshop on the Paleoproterozoic record of the São Francisco craton (SFC) has been designed to provide a view on the aspects of the Paleoproterozoic geology with emphasis on the Mineiro belt and the Minas Supergroup in Minas Gerais state, and thus afford the opportunity to discuss outcrop evidence for the issues such as: i) Significance of the Paleoproterozoic orogenic domains of the SFC; ii) Supercontinent assembly in the context of the Columbia Supercontinent; iii) Paleoproterozoic orogenic architecture as a transition between Archean tectonic styles; iv) Differential response of the Paleoproterozoic lithosphere to extensional tectonism. The first part of field trip traverses the Paleoproterozoic orogenic domain of the southern portion of the SFC in Minas Gerais state, emphasizing its most representative rock assemblages, geochronological and geochemical constraints and tectonic features of the Mineiro belt. This part of the field workshop ends in the mining district of the Quadrilátero Ferrífero where it traverses the Minas Supergroup, which corresponds to the foreland domain of the Paleoproterozoic Mineiro belt. -
Devonian and Carboniferous Stratigraphical Correlation and Interpretation in the Central North Sea, Quadrants 25 – 44
CR/16/032; Final Last modified: 2016/05/29 11:43 Devonian and Carboniferous stratigraphical correlation and interpretation in the Orcadian area, Central North Sea, Quadrants 7 - 22 Energy and Marine Geoscience Programme Commissioned Report CR/16/032 CR/16/032; Final Last modified: 2016/05/29 11:43 CR/16/032; Final Last modified: 2016/05/29 11:43 BRITISH GEOLOGICAL SURVEY ENERGY AND MARINE GEOSCIENCE PROGRAMME COMMERCIAL REPORT CR/16/032 Devonian and Carboniferous stratigraphical correlation and interpretation in the Orcadian area, Central North Sea, Quadrants 7 - 22 K. Whitbread and T. Kearsey The National Grid and other Ordnance Survey data © Crown Copyright and database rights Contributor 2016. Ordnance Survey Licence No. 100021290 EUL. N. Smith Keywords Report; Stratigraphy, Carboniferous, Devonian, Central North Sea. Bibliographical reference WHITBREAD, K AND KEARSEY, T 2016. Devonian and Carboniferous stratigraphical correlation and interpretation in the Orcadian area, Central North Sea, Quadrants 7 - 22. British Geological Survey Commissioned Report, CR/16/032. 74pp. Copyright in materials derived from the British Geological Survey’s work is owned by the Natural Environment Research Council (NERC) and/or the authority that commissioned the work. You may not copy or adapt this publication without first obtaining permission. Contact the BGS Intellectual Property Rights Section, British Geological Survey, Keyworth, e-mail [email protected]. You may quote extracts of a reasonable length without prior permission, provided a full acknowledgement -
Permian Basin, West Texas and Southeastern New Mexico
Report of Investigations No. 201 Stratigraphic Analysis of the Upper Devonian Woodford Formation, Permian Basin, West Texas and Southeastern New Mexico John B. Comer* *Current address Indiana Geological Survey Bloomington, Indiana 47405 1991 Bureau of Economic Geology • W. L. Fisher, Director The University of Texas at Austin • Austin, Texas 78713-7508 Contents Abstract ..............................................................................................................................1 Introduction ..................................................................................................................... 1 Methods .............................................................................................................................3 Stratigraphy .....................................................................................................................5 Nomenclature ...................................................................................................................5 Age and Correlation ........................................................................................................6 Previous Work .................................................................................................................6 Western Outcrop Belt ......................................................................................................6 Central Texas ...................................................................................................................7 Northeastern Oklahoma -
OCTOBER 14, 2005 BLM Eastern States, Milwaukee Field Office
MISSISSIPPI NATIONAL FORESTS REASONABLE FORESEEABLE DEVELOPMENT SCENARIO FINAL REPORT: OCTOBER 14, 2005 BLM Eastern States, Milwaukee Field Office TABLE OF CONTENTS: A. Summary ....................................................................................................................................1 B. Introduction ................................................................................................................................1 C. Basis of Analysis ........................................................................................................................2 D. Description of Geology ..............................................................................................................2 E. Past and Present Fluid Mineral Exploration Activity .................................................................7 F. Past and Present Fluid Mineral Development Activity ...............................................................7 G. Future Fluid Mineral Development Potential .............................................................................8 H. Reasonable Foreseeable Development Scenario Assumptions & Discussion ............................10 I. Selected Bibliography .................................................................................................................14 J. Appendices ..................................................................................................................................15 K. Accompanying Maps .................................................................................................................15 -
GONDWANA I11 Du Toit
GONDWANA 503 i11 du Toit < Gondwana, Samfrau > ... the really important point is not so much to disprove Wegener’s particular views as to decide from the relevant evidence whether or not continental drift is a genuine variety of earth movement. —Holmes, 1944.1 A geologist who looked for geological evidence to test Wegener’s hypothesis of continental drift was Alexander Logie du Toit (1878-1948). As a field geologist for the Geological Survey of South Africa he became familiar with the regional geology of that country. Curious to see firsthand how well, if at all, the geology either side of the Atlantic matched, he applied for and upon receiving a generous grant from the Carnegie Institution of Washington in 1923 he spent five months in South America familiarizing himself with the geology of Argentina, Paraguay and Brazil. His seminal paper, A Geological Comparison of South America with South Africa, was published in 1927. He wrote, “The concordance between the opposed shores, incidentally pointed out and discussed by others long before Wegener, has consistently been extended by each fresh geological observation until at present the amount of agreement is 5 In his book, Our Wandering Continents nothing short of marvellous.” Persuasive of a former (1937)2 is the statement: “from the proximity of the two continents are the discoverable linkages mid-Palaeozoic onwards the lands must have that “cross from coast to coast, not only directly but crept northwards for thousands of kilometers diagonally as well, and are furthermore of widely different to account for their deduced climatic ages.” In the map to illustrate this tectonic and phasal (lateral vicissitudes. -
Department of the Interior U.S
DEPARTMENT OF THE INTERIOR U.S. GEOLOGICAL SURVEY Oil and Gas Resources of the Black Warrior Basin, Alabama and Mississippi Robert T. Ryder1 Open-File Report 87-450X This report is preliminary and has not been reviewed for conformity with U.S. Geological Survey editorial standards and stratigraphic nomenclature ''U.S. Geological Survey, Reston, VA 22092 TABLE OF CONTENTS INTRODUCTION............................................................ 1 Basin location and size........................................... 1 Structural setting................................................ 1 Stratigraphic framework........................................... 1 Source rocks...................................................... 6 Burial history, thermal maturation, timing of migration, and entrapment....................................... 9 Hydrocarbon occurrence........................................... 10 PRINCIPAL PLAYS........................................................ 13 Play identification.............................................. 13 Upper Mississippian (Chesterian) sandstone play.................. 14 REFERENCES ........................................................... 18 LIST OF ILLUSTRATIONS Figure 1. Tectonic map of Alabama, Mississippi, and adjacent states showing the Black Warrior basin............................................................. 3 Figure 2. Geologic cross section through the Black Warrior basin..................................................... 5 Figure 3. Stratigraphic correlation chart for Phanerozoic and -
The Devonian Fauna of the Ouray Limestone
DEPARTMENT OF THE INTERIOR UNITED STATES GEOLOGICAL SURVEY GEORGE OTIS SMITH, DIRECTOR 391 THE DEVONIAN FAUNA OF THE OURAY LIMESTONE BY E. M. KINDLE ' WASHINGTON GOVERNMENT PRINTING OFFICE 1909 CONTENTS. Page. Introduction,.............................................................. 5 Nomenclature and stratigraphic relations. ..................................... 6 Comparison of the two faunas in the Ouray limestone........................... 11 Distribution of the fauna..........................................:......... 13 Description of fauna....................................................... 15 Ccelenterata............................................................ 15 Vermes............................................................... 15 Brachipoda........................................................... 15 Pelecypoda........................................................... 30 Gastropoda............................................................ 33 Cephalopoda.......................................................... 36 Index.................................................................... 59 ILLUSTRATIONS. Page. PLATE I. Quray fauna. 40 II. Ouray fauna. 42 III. Ouray fauna. 44 IV. Ouray fauna. 46 V. Ouray fauna. 48 VI. Ouray fauna. 50 VII. Ouray fauna. 52 VIII. Ouray fauna. 54 IX. Ouray fauna. 56 X.- Ouray fauna. 58 THE DEVONIAN FAUNA OF THE OURAY LIMESTONE, By E. M. KINDLE. INTRODUCTION. The first discovery of a Devonian fauna in Colorado was made by F. M. Endlich in 1875, during his survey of the San Juan district.