South Texas Project Units 3 & 4 COLA
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Victoria County Station ESP, SSAR, Rev. 1
Victoria County Station ESP Application Part 2 — Site Safety Analysis Report Subsection 2.5.1 Table of Contents Section Title Page 2.5 Geology, Seismology, and Geotechnical Engineering ........................................ 2.5.1-1 2.5.1 Basic Geologic and Seismic Information ........................................................ 2.5.1-3 2.5.1.1 Regional Geology ................................................................................. 2.5.1-4 2.5.1.2 Site Area Geology .............................................................................. 2.5.1-64 2.5.1.3 References ....................................................................................... 2.5.1-102 2.5.1-A Geophysical Cross Sections .....................................................................2.5.1-A-1 2.5.1-i Revision 1 Victoria County Station ESP Application Part 2 — Site Safety Analysis Report Subsection 2.5.1 List of Tables Number Title 2.5.1-1 Growth Faults within Site Vicinity 2.5.1-2 Summary of Meers Fault Characterizations from Existing Literature 2.5.1-3 Seismic Reflection Horizon Depths 2.5.1-4 Updip Fault Terminations and Horizon Offsets Observed in Seismic Lines 2.5.1-5 Active Wells Victoria County Station Site 2.5.1-ii Revision 1 Victoria County Station ESP Application Part 2 — Site Safety Analysis Report Subsection 2.5.1 List of Figures 2.5.1-1 Map of Physiographic Provinces 2.5.1-2a Regional Geologic Map (200-Mile Radius) 2.5.1-2b Explanation for Regional Geologic Map (200-Mile Radius) 2.5.1-3 Physiographic Map of Texas 2.5.1-4 Site -
Please Pass the Salt: Using Oil Fields for the Disposal of Concentrate from Desalination Plants
FINAL REPORT - June 2005 Please Pass the Salt: Using Oil Fields for the Disposal of Concentrate from Desalination Plants PRESSURE 8 0 % % 0 8 0 500 1,000 1,500 2,000 2,500 3,000 3,500 4,000 6 J l 0 C % % a 0 C 0 J + 6 + J J M 4 JJ J O 4 JJ J JJ J J J g 0 J JJ J J J J S JJ JJ J % % J J J J JJ J 1,000 J JJJJJJ J JJJ J J 0 JJJ J JJJJJ JJJJ J J J J 4 JJJ JJJJJ JJ JJ J J J JJJJJJJJJ JJJJJJJJJ JJ 2 JJJJ JJJ JJ J J 0 J JJJJJ JJ JJJJ J J JJ J JJJJJJJJ J J % % J J JJJJJJJJJJ J JJ 2,000 JJ JJJ JJJJJ J J JJJ J 0 J JJJ JJJJJJJJJ JJJ J J JJ 2 JJ JJJJ J J J J JJJ JJ J J JJ J J J JJJJJ J JJ J J J JJ JJJJJJJJ J JJ J J JJJ J J JJJ J J 3,000 JJ JJ JJ J J J J JJ JJ J JJ J J JJ J J J J J J JJ J J J J J J J J JJ J JJJJ J J J JJ J JJ JJ JJJ JJJ J J JJJ J J J J JJ J JJ J J J J 4,000 J J J JJ JJJJJ J J J J JJJJ J J J J J JJ JJJJJ J J JJJJ DEPTH J J J J JJ JJJJ 5,000 J JJJ JJ JJ 2 JJJJ 0 % J JJ % 0 J JJJJ 2 J J J J 80% N JJJ 80% a JJ JJJ 3 6,000 JJJ J + J J O 4 JJ C 0 % K JJJ % J 0 J JJ H S g 4 JJ J O 60% JJ JJ J 60% M 4 7,000 6 JJ 0 J JJ J J J % % J JJ J J J J J 0 J JJ JJJ J J J J 6 JJJJ J 40% J J J J J J J J J J JJ 40% J J J JJ J JJ JJ J JJ 8,000 J J J J J 8 J J J J J JJJJJJ J J J J J J J 0 J J J J JJ JJ J J J J % J JJ J J J J JJ J JJ JJ J % J J JJJ JJJJ JJJJ J JJ J J J JJJJ JJJ J J 0 J JJJJJJ JJJJJJ J J JJJ J J JJ JJJ JJJJJJJ J JJ J 8 J JJ JJJJ JJJJJJ J JJ JJJ J JJ 20% J J JJJ JJJJJJJJJJ JJ JJJJJJ J J J J J JJJ JJJJJJ JJJJJJJ JJJ J JJJJ J 20% J JJ JJJJ JJJJJJJJJJJJJ J JJJ JJJ JJJJ J JJ JJJJJ JJJJJJJJJJJJJJJJJJJ JJJJJJJ J J J JJJJJJJJJJJJJJJJJJJJJJJJ JJJJJJJJJJ -
Kimmeridgian (Late Jurassic) Cold-Water Idoceratids (Ammonoidea) from Southern Coahuila, Northeastern Mexico, Associated with Boreal Bivalves and Belemnites
REVISTA MEXICANA DE CIENCIAS GEOLÓGICAS Kimmeridgian cold-water idoceratids associated with Boreal bivalvesv. 32, núm. and 1, 2015, belemnites p. 11-20 Kimmeridgian (Late Jurassic) cold-water idoceratids (Ammonoidea) from southern Coahuila, northeastern Mexico, associated with Boreal bivalves and belemnites Patrick Zell* and Wolfgang Stinnesbeck Institute for Earth Sciences, Heidelberg University, Im Neuenheimer Feld 234, 69120 Heidelberg, Germany. *[email protected] ABSTRACT et al., 2001; Chumakov et al., 2014) was followed by a cool period during the late Oxfordian-early Kimmeridgian (e.g., Jenkyns et al., Here we present two early Kimmeridgian faunal assemblages 2002; Weissert and Erba, 2004) and a long-term gradual warming composed of the ammonite Idoceras (Idoceras pinonense n. sp. and trend towards the Jurassic-Cretaceous boundary (e.g., Abbink et al., I. inflatum Burckhardt, 1906), Boreal belemnites Cylindroteuthis 2001; Lécuyer et al., 2003; Gröcke et al., 2003; Zakharov et al., 2014). cuspidata Sachs and Nalnjaeva, 1964 and Cylindroteuthis ex. gr. Palynological data suggest that the latest Jurassic was also marked by jacutica Sachs and Nalnjaeva, 1964, as well as the Boreal bivalve Buchia significant fluctuations in paleotemperature and climate (e.g., Abbink concentrica (J. de C. Sowerby, 1827). The assemblages were discovered et al., 2001). in inner- to outer shelf sediments of the lower La Casita Formation Upper Jurassic-Lower Cretaceous marine associations contain- at Puerto Piñones, southern Coahuila, and suggest that some taxa of ing both Tethyan and Boreal elements [e.g. ammonites, belemnites Idoceras inhabited cold-water environments. (Cylindroteuthis) and bivalves (Buchia)], were described from numer- ous localities of the Western Cordillera belt from Alaska to California Key words: La Casita Formation, Kimmeridgian, idoceratid ammonites, (e.g., Jeletzky, 1965), while Boreal (Buchia) and even southern high Boreal bivalves, Boreal belemnites. -
ABSTRACT Magnetic Investigation of the Continental-Oceanic Crustal
ABSTRACT Magnetic Investigation of the Continental-Oceanic Crustal Boundary; Northern Gulf of Mexico Mark Speckien, M.S. Mentor: John A. Dunbar, Ph.D. Current mapping of magnetic intensity data shows that the Gulf Coast magnetic anomaly is not one anomaly but two distinct anomalies, with one portion trending parallel to the margin before curving northward through central Texas, and then northeastward into the Balcones Fault Zone along the eastern trace of the Ouachita Deformation Front, and the other following the coastline into Louisiana. Multiple profiles perpendicular to the geologic strike of the anomalies lead to the interpretation of these anomalies as the superposition of a normal rifting feature and a pre-existing crustal feature remnant of a complex tectonic history in the region. The location of the pre-existing feature and the rift anomaly suggest pre-rifting lithosphere conditions influenced the rifting process as seen in other passive rifting models. Magnetic Investigation of the Continental-Oceanic Crustal Boundary; Northern Gulf of Mexico by Mark Speckien, B.S. A Thesis Approved by the Geology Department ___________________________________ Steven G. Driese, Ph.D., Chairperson Submitted to the Graduate Faculty of Baylor University in Partial Fulfillment of the Requirements for the Degree of Master of Science Approved by the Thesis Committee ___________________________________ John A. Dunbar, Ph.D., Chairperson ___________________________________ Vincent S. Cronin, Ph.D. ___________________________________ Dwight P. Russell, Ph.D. Accepted by the Graduate School August 2012 ___________________________________ J. Larry Lyon, Ph.D., Dean Page bearing signatures is kept on file in the Graduate School. Copyright © 2012 by Mark Speckien All rights reserved TABLE OF CONTENTS LIST OF FIGURES .............................................................................................................v ACKNOWLEDGMENTS ............................................................................................................. -
South Texas Project Units 3 & 4 COLA
Rev. 08 STP 3 & 4 Final Safety Analysis Report 2.5S.1 Basic Geologic and Seismic Information The geological and seismological information presented in this section was developed from a review of previous reports prepared for the existing units, published geologic literature, interpretation of aerial photography, a subsurface investigation, and an aerial reconnaissance conducted for preparation of this STP 3 & 4 application. Previous site-specific reports reviewed include the STP 1 & 2 FSAR, Revision 13 (Reference 2.5S.1-7). A review of published geologic literature and seismologic data supplements and updates the existing geological and seismological information. A list of references used to compile the geological and seismological information presented in the following pages is provided at the end of Subsection 2.5S.1. It is intended in this section of the STP 3 & 4 FSAR to demonstrate compliance with the requirements of 10 CFR 100.23 (c). Presented in this section is information of the geological and seismological characteristics of the STP 3 & 4 site region, site vicinity, site area, and site. Subsection 2.5S.1.1 describes the geologic and tectonic characteristics of the site region and site vicinity. Subsection 2.5S.1.2 describes the geologic and tectonic characteristics of the STP 3 & 4 site area and site. The geological and seismological information was developed in accordance with NRC guidance documents RG-1.206 and RG-1.208. 2.5S.1.1 Regional Geology (200 mile radius) Using Texas Bureau of Economic Geology Terminology, this subsection discusses the physiography, geologic history, stratigraphy, and tectonic setting within a 200 mi radius of the STP 3 & 4 site. -
Stratigraphic Nomenclature and Geologic Sections of the Gulf Coastal Plain of Texas
STRATIGRAPHIC NOMENCLATURE AND GEOLOGIC SECTIONS OF THE GULF COASTAL PLAIN OF TEXAS By E.T. Baker, Jr. U.S. GEOLOGICAL SURVEY Open-File Report 94-461 A contribution of the Regional Aquifer-System Analysis Program Austin, Texas 1995 U.S. DEPARTMENT OF THE INTERIOR BRUCE BABBITT, Secretary U.S. GEOLOGICAL SURVEY Gordon P. Eaton, Director Any use of trade, product, or firm names is for descriptive purposes only and does not imply endorsement by the U.S. Government. For additional information write to: Copies of this report can be purchased from: U.S. Geological Survey Earth Science Information Center District Chief Open-File Reports Section U.S. Geological Survey Box 25286, Mail Stop 517 8011 Cameron Rd. Denver Federal Center Austin, TX 78754-3898 Denver, CO 80225-0046 CONTENTS Abstract ............................................................................................................................................^ 1 Introduction .......................................................................................................................,........,............................^ 1 Stratigraphic Nomenclature ................................................................................................................................................. 1 Geologic Sections ................................................................................................................................................................. 2 Selected References ........................................................................................................................^^ -
Synoptic Taxonomy of Major Fossil Groups
APPENDIX Synoptic Taxonomy of Major Fossil Groups Important fossil taxa are listed down to the lowest practical taxonomic level; in most cases, this will be the ordinal or subordinallevel. Abbreviated stratigraphic units in parentheses (e.g., UCamb-Ree) indicate maximum range known for the group; units followed by question marks are isolated occurrences followed generally by an interval with no known representatives. Taxa with ranges to "Ree" are extant. Data are extracted principally from Harland et al. (1967), Moore et al. (1956 et seq.), Sepkoski (1982), Romer (1966), Colbert (1980), Moy-Thomas and Miles (1971), Taylor (1981), and Brasier (1980). KINGDOM MONERA Class Ciliata (cont.) Order Spirotrichia (Tintinnida) (UOrd-Rec) DIVISION CYANOPHYTA ?Class [mertae sedis Order Chitinozoa (Proterozoic?, LOrd-UDev) Class Cyanophyceae Class Actinopoda Order Chroococcales (Archean-Rec) Subclass Radiolaria Order Nostocales (Archean-Ree) Order Polycystina Order Spongiostromales (Archean-Ree) Suborder Spumellaria (MCamb-Rec) Order Stigonematales (LDev-Rec) Suborder Nasselaria (Dev-Ree) Three minor orders KINGDOM ANIMALIA KINGDOM PROTISTA PHYLUM PORIFERA PHYLUM PROTOZOA Class Hexactinellida Order Amphidiscophora (Miss-Ree) Class Rhizopodea Order Hexactinosida (MTrias-Rec) Order Foraminiferida* Order Lyssacinosida (LCamb-Rec) Suborder Allogromiina (UCamb-Ree) Order Lychniscosida (UTrias-Rec) Suborder Textulariina (LCamb-Ree) Class Demospongia Suborder Fusulinina (Ord-Perm) Order Monaxonida (MCamb-Ree) Suborder Miliolina (Sil-Ree) Order Lithistida -
Geochronology of Igneous Rocks in the Sierra Norte De Córdoba (Argentina): Implications for the Pampean Evolution at the Western Gondwana Margin
RESEARCH Geochronology of igneous rocks in the Sierra Norte de Córdoba (Argentina): Implications for the Pampean evolution at the western Gondwana margin W. von Gosen1,*, W.C. McClelland2,*, W. Loske3,*, J.C. Martínez4,5,*, and C. Prozzi4,* 1GEOZENTRUM NORDBAYERN, KRUSTENDYNAMIK, FRIEDRICH-ALEXANDER-UNIVERSITÄT ERLANGEN-NÜRNBERG, SCHLOSSGARTEN 5, D-91054 ERLANGEN, GERMANY 2DEPARTMENT OF EARTH AND ENVIRONMENTAL SCIENCES, UNIVERSITY OF IOWA, 121 TROWBRIDGE HALL, IOWA CITY, IOWA 52242, USA 3DEPARTMENT FÜR GEO- UND UMWELTWISSENSCHAFTEN, SEKTION GEOLOGIE, LUDWIG-MAXIMILIANS-UNIVERSITÄT MÜNCHEN, LUISENSTRASSE 37, D-80333 MÜNCHEN, GERMANY 4DEPARTAMENTO DE GEOLOGÍA, UNIVERSIDAD NACIONAL DEL SUR, SAN JUAN 670, 8000 BAHÍA BLANCA, ARGENTINA 5INGEOSUR-CONICET ABSTRACT U-Pb zircon data (secondary ion mass spectrometry [SIMS] and thermal ionization mass spectrometry [TIMS] analyses) from igneous rocks with differing structural fabrics in the Sierra Norte de Córdoba, western Argentina, suggest that the sedimentary, tectonic, and magmatic history in this part of the Eastern Sierras Pampeanas spans the late Neoproterozoic–Early Cambrian. A deformed metarhyolite layer in meta- clastic sedimentary rocks gives a crystallization age of 535 ± 5 Ma, providing a limit on the timing of the onset of D1 deformation and meta- morphism. The new data coupled with published Neoproterozoic zircon dates from a rhyolite beneath the metaclastic section and detrital zircon ages from the section indicate a late Neoproterozoic to Early Cambrian depositional age, making this section time equivalent with the Puncoviscana Formation (sensu lato) of northwest Argentina. A synkinematic granite porphyry gives a crystallization age of 534 ± 5 Ma, pro- viding a limit on the age of dextral mylonitization in the Sierra Norte area (D2 event). -
Curriculum Vitæ
THOMAS A. SHILLER II, Ph.D. Box C-64 Alpine, TX 79830 (432) 837-8871 [email protected] EDUCATION Ph.D. Texas Tech University, Lubbock Geoscience, May 2017 Dissertation: “Stratigraphy and paleontology of Upper Cretaceous strata in northern Coahuila, Mexico” Scholarships and Awards: John P. Brand Memorial Scholarship M.S. Texas Tech University, Lubbock Geoscience, 2012 Thesis: “A dyrosaurid crocodilian from the Cretaceous (Maastrichtian) Escondido Formation of Coahuila, Mexico” B. S. Sul Ross State University, Alpine Geology, 2009 Minor: Biology Scholarships and Awards: David M. Rohr Scholarship, Julius Dasch Outstanding Undergraduate Geology Student, Texas Space Grant Consortium Scholarship TEACHING EXPERIENCE Sul Ross State University; Department of Biology, Geology, and Physical Sciences Assistant Professor Physical Geology—2017–present Historical Geology—2018–present Stratigraphy and Sedimentation—2018–present Dinosaurs, Volcanoes, and Earthquakes—2017–present Vertebrate Paleontology—2018–present Intro to Field Geology—2018–present Field Methods—2018–present Advanced Structural Methods—2019 Dynamic Stratigraphy—2019 Structural Geology—2020 Texas Tech University, Department of Geosciences Teaching Assistant Advanced Field Methods—Summer, 2010–2015 Sedimentary Field Methods—Spring; 2011–2014, 2017 Stratigraphy and Sedimentology—Fall, 2016 Lab Instructor Historical Geology—Fall, 2011–2015; Summer, 2016 Sul Ross State University, Department of Earth and Physical Sciences Texas Pre-freshman Engineering Program (TexPREP)—2009 RESEARCH Sul Ross State University, Department of Biology, Geology, and Physical Sciences Big Bend National Park, Texas—present Collect and document Cretaceous–Paleogene vertebrate fossil material under permit from the National Park Service. Northern Coahuila, Mexico—present Conducting an ongoing study of the paleontology and stratigraphy of Upper Cretaceous strata of the region of Mexico adjacent to Big Bend National Park and the Región Carbonífera of Coahuila. -
SUBMITTED ABSTRACTS the Mesozoic of the Gulf Rim And
SUBMITTED ABSTRACTS The Mesozoic of the Gulf Rim and Beyond: New Progress in Science and Exploration of the Gulf of Mexico Basin 2016 GCSSEPM Conference, December 8-9, 2016, Houston, Texas Deep-seated dynamics including crust and upper mantle impacting hydrocarbon localization within sediment-filled basins Rich Adams and Allen Lowrie Hydrocarbons occur within sediments in basins within the uppermost crust. Localization is affected by regional temperature and pressure gradients as well as anomalies in sediment distribution; porosity and permeability; and breakages (faults, joints and fractures) in both soft and hard materials. In our search for these hydrocarbons, we map and record geophysical and geochemical anomalies, generally caused by sediment and crustal tectonics. Many of these in turn appear influenced and guided by lower crust-upper mantle interactions that include, among others, buoyant mantle plumes and lateral plate tectonics. In order to better understand how such a total geologic system operates, it is necessary to think of this entire sediment - basin - crust - upper mantle complex as a single unit. We must seek new and pertinent explanations for hydrocarbon occurrences including these mantle and crust influences as we extend our exploration models into new frontiers. In summary, the cumulative actions of the entire geologic system including upper mantle to upper crust create forces and dynamics capable of modifying overlying basins and hydrocarbon- bearing sediments recording these underlying forces. We suggest that the whole petroleum system concept needs examination in light of upper mantle and crust dynamics. With mantle plumes causing the Late Triassic North Atlantic Rifting, the evolutionary scenario here is appropriate explanation for continental rifting followed by basin initiation and subsequent deepening and in-filling and locating hydrocarbons. -
THE VELIGER the Buccinid Gastropod Deussenia from Upper
^XJ CAVM ^ v C T ^Oti , L' £. Wafural Hfetory Museum I J / ' Of Los Angeles County Invertebrate Paleontology TH© ECMS VELIGE, Inc., 2000R The Veliger 43(2): 118-125 (April 3, 2000) The Buccinid Gastropod Deussenia From Upper Cretaceous Strata of California RICHARD L. SQUIRES Department of Geological Sciences, California State University, Northridge 91330-8266, USA AND LOUELLA R. SAUL Invertebrate Paleontology Section, Natural History Museum of Los Angeles County, 900 Exposition Boulevard, Los Angeles, California 90007, USA Abstract. Rare specimens of three new species of the Late Cretaceous buccinid gastropod Deussenia Stephenson, 1941, are reported from California. Deussenia sierrana sp. nov. is from lower Campanian strata in the Chico Formation in the Pentz area, Butte County, northern California. Deussenia californiana sp. nov. is from upper middle to lower upper Campanian strata in the Tuna Canyon Formation in the Garapito Creek area, eastern Santa Monica Mounains, Los Angeles County, southern California. Deussenia pacificana sp. nov. is from uppermost Maastrichtian or possibly lowermost Paleocene strata in the Dip Creek area, northern San Luis Obispo County, central California. These three new species are the only known occurrences of this genus from the Pacific coast of North America. Deussenia has been reported before only from upper Santonian to lower Campanian strata at the mouth of the Mzamba River (Pondoland, Transkei) in South Africa and from Campanian to Maastrichtian strata in Texas and the Gulf Coast of the United States. INTRODUCTION discussion as to why he chose this family. Sohl (1964) Late Cretaceous buccinid gastropods are relatively un- assigned Deussenia to family Melongenidae, and he also common on the Pacific coast of North America. -
References Geology
9.0 References Geology Albright L. B. 1998. The Arikareean Land Mammal Age in Texas and Florida: Southern extension of Great Plains faunas and Gulf Coastal Plain endemism. Special Paper 325: Depositional Environments, Lithostratigraphy, and Biostratigraphy of the White River and Arikaree Groups (Late Eocene to Early Miocene, North America): Vol. 325, pp. 167–183. Alexander, C. I. 1933. Shell Structure of the Ostracode Genus Cytheropteron, and Fossil Species from the Cretaceous of Texas. 1933. SEPM Society for Sedimentary Geology. Arnall, Erin, Ganguli, A., and Hickman, K. 2008 Oklahoma State University. Oklahoma Rangelands. Retrieved August 26, 2008 from: http://okrangelandswest.okstate.Edu/OklahomaRangelands.html Averitt, P. 1963. Coal in Mineral and Water Resources of Montana, Montana Bureau of Mines and Geology Special Publication 28, May 1963. Digital version prepared in 2002-2003. Retrieved July 30, 2008 from: http://www.mbmg.mtech.edu/sp28/intro.htm Baker, E.T. 1979. Stratigraphic and hydrogeologic framework of part of the Coastal Plain of Texas. Texas Dept. of Water Resources Report 236. Baskin, J. A. and F. G. Cornish 1989. Late Quaternary Fluvial Deposits and Vertebrate Paleontology, Nueces River Valley, Gulf Coastal Plain, South Texas. In Baskin, J. A. and Prouty, J. S. (eds.), South Texas Clastic Depositional Systems. GCAGS 1989 Convention Field Trip. Corpus Christi Geological Society. Pp. 23-30. Bassler, R. S. and M. W. Moodey, 1943. Bibliographic and faunal index of Paleozoic pelmatozoan echinoderms: Geological Society of America Special Paper 45. Bergantino, R.N. 2002. Geologic map of the Whitewater 30' x 60' quadrangle, Montana Bureau of Mines and Geology: Open File Report 471, 6 p., 1 sheet(s), 1:100,000.