Annotated Bibliography and Index Map of Salt Deposits in the United States
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Halite Nacl C 2001-2005 Mineral Data Publishing, Version 1
Halite NaCl c 2001-2005 Mineral Data Publishing, version 1 Crystal Data: Cubic. Point Group: 4/m32/m. Crystals cubic, to 1 m, or octahedral; elongated along [100] or [111], skeletal with hopper-shaped faces. Rarely capillary or stalactitic; granular, compact, massive. Physical Properties: Cleavage: {001}, perfect. Fracture: Conchoidal. Tenacity: Brittle. Hardness = 2–2.5 D(meas.) = 2.168 D(calc.) = 2.165 Soluble in H2O, saline taste; rarely fluoresces red under SW UV. Optical Properties: Transparent. Color: Colorless or white when pure; gray, yellow, orange, pink, red, blue, purple; colorless to faintly tinted in thin section. Streak: White. Luster: Vitreous. Optical Class: Isotropic; weakly anisotropic due to stress. Dispersion: Moderately strong. n = 1.5443 Cell Data: Space Group: Fm3m. a = 5.6404(1) Z = 4 X-ray Powder Pattern: Synthetic. 2.821 (100), 1.994 (55), 1.628 (15), 3.258 (13), 1.261 (11), 1.1515 (7), 1.410 (6) Chemistry: (1) (2) Na 39.00 39.34 K 0.12 Mg 0.03 Ca 0.08 Cl 60.27 60.66 SO4 0.27 Total 99.77 100.00 (1) Cardona, Barcelona, Spain. (2) NaCl. Occurrence: Typically in sedimentary rocks of evaporite association, may form immense beds; also as volcanic sublimates, efflorescences, cave deposits. Crystals are common in multiphase fluid inclusions; may be included in other minerals as a product of intermediate-grade metamorphism. Association: Sylvite, polyhalite, kieserite, carnallite, gypsum, anhydrite, dolomite. Distribution: Of worldwide occurrence. Well-studied deposits include: in Austria, around Hallstadt, Salzburg, and Hall, near Innsbruck, Tirol. From Bex, Vaud, Switzerland. In Germany, from Stassfurt-Leopoldshall, 34 km south of Magdeburg, Saxony-Anhalt. -
Sodium Chloride (Halite, Common Salt Or Table Salt, Rock Salt)
71376, 71386 Sodium chloride (Halite, Common Salt or Table Salt, Rock Salt) CAS number: 7647-14-5 Product Description: Molecular formula: NaCl Appearance: white powder (crystalline) Molecular weight: 58.44 g/mol Density of large crystals: 2.17 g/ml1 Melting Point: 804°C1 Density: 1.186 g/ml (5 M in water)2 2 Solubility: 1 M in H2O, 20°C, complete, clear, colorless 2 pH: 5.0-8.0 (1 M in H2O, 25°C) Store at room temperature Sodium chloride is geologically stable. If kept dry, it will remain a free-flowing solid for years. Traces of magnesium or calcium chloride in commercial sodium chloride adsorb moisture, making it cake. The trace moisture does not harm the material chemically in any way. 71378 BioUltra 71386 BioUltra for molecular biology, 5 M Solution The products are suitable for different applications like purification, precipitation, crystallisation and other applications which require tight control of elemental content. Trace elemental analyses have been performed for all qualities. The molecular biology quality is also tested for absence of nucleases. The Certificate of Analysis provides lot-specific results. Much of the sodium chloride is mined from salts deposited from evaporation of brine of ancient oceans, or recovered from sea water by solar evaporation. Due to the presence of trace hygroscopic minerals, food-grade salt has a small amount of silicate added to prevent caking; as a result, concentrated solutions of "table salt" are usually slightly cloudy in appearance. 71376 and 71386 do not contain any anti-caking agent. Applications: Sodium chloride is a commonly used chemical found in nature and in all body tissue, and is considered an essential nutrient. -
Salt Deposits in the UK
CORE Metadata, citation and similar papers at core.ac.uk Provided by NERC Open Research Archive Halite karst geohazards (natural and man-made) in the United Kingdom ANTHONY H. COOPER British Geological Survey, Keyworth, Nottingham, NG12 5GG, Great Britain COPYRIGHT © BGS/NERC e-mail [email protected] +44 (-0)115 936 3393 +44 (-0)115 936 3475 COOPER, A.H. 2002. Halite karst geohazards (natural and man-made) in the United Kingdom. Environmental Geology, Vol. 42, 505-512. This work is based on a paper presented to the 8th Multidisciplinary Conference on Sinkholes and the Engineering and Environmental impact of karst, Louisville, Kentucky, April 2001. In the United Kingdom Permian and Triassic halite (rock salt) deposits have been affected by natural and artificial dissolution producing karstic landforms and subsidence. Brine springs from the Triassic salt have been exploited since Roman times, or possibly earlier, indicating prolonged natural dissolution. Medieval salt extraction in England is indicated by the of place names ending in “wich” indicating brine spring exploitation at Northwich, Middlewich, Nantwich and Droitwich. Later, Victorian brine extraction in these areas accentuated salt karst development causing severe subsidence problems that remain a legacy. The salt was also mined, but the mines flooded and consequent brine extraction caused the workings to collapse, resulting in catastrophic surface subsidence. Legislation was enacted to pay for the damage and a levy is still charged for salt extraction. Some salt mines are still collapsing and the re-establishment of the post-brine extraction hydrogeological regimes means that salt springs may again flow causing further dissolution and potential collapse. -
The Changing Technology of Post Medieval Sea Salt Production in England
1 Heritage, Uses and Representations of the Sea. Centro de Investigação Transdisiplinar Cultura, Espaço e Memoría (CITCEM) Porto, Faculdade de Letras da Universidade do Porto, 20-22 October 2011. The changing technology of post medieval sea salt production in England Jeremy Greenwood Composition of seawater Sea water contains 3.5% evaporites of which salt (sodium chloride) comprises 77.8%. The remainder is known as bittern as it includes the bitter tasting, aperient and deliquescent sulphates of magnesium (Epsom salt) and sodium (Glauber’s salt) as well as about 11% magnesium chloride. 2 Successful commercial salt making depends on the fractional crystallisation of seawater producing the maximum amount of salt without contamination by bittern salts. As seawater is evaporated, very small amounts of calcium carbonate are precipitated followed by some calcium sulphate. This is followed by the crystallisation of sodium chloride but before this is complete, bitter Epsom salt appears; something that needs to be avoided.1 In Continental Europe, evaporation of sea water is achieved solely by the energy of the wind and sun but this is not possible in the English climate so other techniques were developed. 1 http://www.solarsaltharvesters.com/notes.htm SOLAR SALT ENGINEERING 3 Evaporation vessel Briquetage The earliest known English method of coastal saltmaking has been found in the late Bronze Age. This involved boiling seawater in crude clay dishes supported by clay firebars (briquetage) and was widespread in Europe. This technique continued into the Iron Age and into the Roman period with variations inevitably occurring in the industry, although the dating of saltworks is very problematical.2 Detailed interpretation continues to be a matter of dispute. -
Salt Caverns &Their Use for Disposal of Oil Field Wastes
An Introduction to Salt Caverns & Their Use for Disposal of Oil Field Wastes An Introduction to Salt Caverns & Their Use for Disposal of Oil Field Wastes Table of Contents What Are Salt Caverns? ........................................................................................... 2 Why Are Salt Caverns Important? ............................................................................ 2 Where Are Salt Deposits and Caverns Found? ......................................................... 3 How Are Caverns Formed?...................................................................................... 4 How Are Caverns Used? .......................................................................................... 5 What Types of Wastes Are Considered to Be Oil Field Wastes? ......................................................................... 6 What Are the Legal Requirements Governing Disposal of Oil Field Wastes into Salt Caverns? ....................................... 7 Are NOW or NORM Wastes Currently Being Disposed of into Caverns?.............................................................. 8 How Are Wastes Put into Caverns? .......................................................................... 9 What Types of Monitoring Are Appropriate for Disposal Caverns?........................................................................ 10 What Happens to the Cavern When It Is Full? ........................................................ 11 What Would Happen if Caverns Leak? .................................................................. -
Bureau of Economic Geology
BUREAU OF ECONOMIC GEOLOGY THE UNIVERSITY OF TEXAS AT AUSTIN W. L. FISHER, DIRECTOR PHASE III: EXAMINATION OF TEXAS SALT DOMES AS POTENTIAL SITES FOR PERMANENT STORAGE . OF TOXIC CHEMICAL WASTE Prepared by S. J. Seni, E. W. Collins, H. S. Hamlin, W. F. Mullican Ill, and D. A. Smith Assisted by L. Falconer and T. Walter Report prepared for the Texas Water Commission under Interagency Contract No. IAC(84-85)-2203 Bureau of Economic Geology W. L. Fisher, Director The University of Texas at Austin University Station, Box X Austin, Texas 78713 November 1985 CONTENTS INTRODUCTION. 1 RECOMMENDATIONS AND CONCLUSIONS, by S. J. Seni • 1 REFERENCES 5 TOPICAL SUMMARIES OF RESEARCH REPORTS, by S. J. Seni 7 Subsidence and Collapse 7 Structural Patterns Around Texas Salt Domes 9 Cap Rock. 10 Cap-Rock Hydrology 13 ACKNOWLEDGMENTS. 15 RESEARCH REPORTS* 17 Subsidence over Texas Salt Domes, by W. F. Mullican III 18 Statistical Analysis of Structure in the Houston Diapir Province, by W. F. Mullican III . 73 Petrography and Structure of Cap Rock with Emphasis on Core from Boling Salt Dome, Texas, by S. J. Seni . · 114 Geology and Hydrogeology, Barbers Hill Salt Dome, Texas, by H. S. Hamlin . · 181 Hydraulics of Cap Rock, Barbers Hill Salt Dome, Texas, by D. A. Smith • 236 Review of the Geology and Plio-Pleistocene to Post-Pleistocene Deformation at Damon Mound Salt Dome, Texas, by E. C. Collins. 275 APPENDIX A. List of domes and codes . 308 * All figures, tables, and references are listed within individual research reports. i i INTRODUCTION This report presents the results of final Phase III research in order to better quantify selected issues associated with permanent storage of toxic chemical wastes in solution mined caverns in salt. -
S40645-019-0306-X.Pdf
Isaji et al. Progress in Earth and Planetary Science (2019) 6:60 Progress in Earth and https://doi.org/10.1186/s40645-019-0306-x Planetary Science RESEARCH ARTICLE Open Access Biomarker records and mineral compositions of the Messinian halite and K–Mg salts from Sicily Yuta Isaji1* , Toshihiro Yoshimura1, Junichiro Kuroda2, Yusuke Tamenori3, Francisco J. Jiménez-Espejo1,4, Stefano Lugli5, Vinicio Manzi6, Marco Roveri6, Hodaka Kawahata2 and Naohiko Ohkouchi1 Abstract The evaporites of the Realmonte salt mine (Sicily, Italy) are important archives recording the most extreme conditions of the Messinian Salinity Crisis (MSC). However, geochemical approach on these evaporitic sequences is scarce and little is known on the response of the biological community to drastically elevating salinity. In the present work, we investigated the depositional environments and the biological community of the shale–anhydrite–halite triplets and the K–Mg salt layer deposited during the peak of the MSC. Both hopanes and steranes are detected in the shale–anhydrite–halite triplets, suggesting the presence of eukaryotes and bacteria throughout their deposition. The K–Mg salt layer is composed of primary halites, diagenetic leonite, and primary and/or secondary kainite, which are interpreted to have precipitated from density-stratified water column with the halite-precipitating brine at the surface and the brine- precipitating K–Mg salts at the bottom. The presence of hopanes and a trace amount of steranes implicates that eukaryotes and bacteria were able to survive in the surface halite-precipitating brine even during the most extreme condition of the MSC. Keywords: Messinian Salinity Crisis, Evaporites, Kainite, μ-XRF, Biomarker Introduction hypersaline condition between 5.60 and 5.55 Ma (Manzi The Messinian Salinity Crisis (MSC) is one of the most et al. -
HGS Bulletin Volume 35 No.9 (May 1993)
May 1993 BULLETIN Volume 35 Number 9 THE GREAT $10.00 "EXPERIMENTAL" EVENING MEETING (See Ad, Page 8, and Meeting Survey, Page 9) * * * HGS JOBS HOTLINE (713)785-9729 * * * IN THIS ISSUE... - South Australia - The southern continental margin.. ........... Page 12 - Can I eat the seafood? .......................................... Page 18 - Estimating reservoir size from seismic .......................... Page 22 - Micromagnetics ................................................ Page 24 - Another party heard from.. ..................................... Page 31 - New happenings at the Houston Museum of Natural Science ..... Page 34 - A collector's guide to vintage oil & gas books ..................... Page 36 - Selecting "The Right" workstation .............................. Page 44 AND MORE! See Centerfold for May Calendar and Geoevents. Non-Exclusive 2D/3D .. , ,\.! , HOUSTON GEOLOGICAL SOCIETY 7171 Harwin. Suite 31 4 Houston. Texas 77036-2190 (713) 785-6402 Fax: (713) 785-0553 Office Hours: 7 a.m. .4 p.m. - EXECUTIVE BOARD - President ....................................................................Patrick T . (Pat) Gordon. Consultant President-Elect ...........................................................John M . Biancardi. Vicksburg Production Vice President .........................................................Dwight (Clint) Moore. Anadarko Petroleum Secretary ........................................................... .Jeannie Fisher Mallick. Excalibur Consultina Treasurer ................................................................. -
Using Sedimentology to Address the Marine Or Continental Origin of the Permian Hutchinson Salt Member of Kansas
Sedimentology (2019) doi: 10.1111/sed.12665 Using sedimentology to address the marine or continental origin of the Permian Hutchinson Salt Member of Kansas ANNA SOFIA ANDESKIE and KATHLEEN C. BENISON Department of Geology and Geography, West Virginia University, Morgantown, West Virginia, 26506-6300, USA (E-mail: [email protected]) Associate Editor – Hairuo Qing ABSTRACT The Permian Hutchinson Salt Member of the Wellington Formation of the Sumner Group of Kansas (USA) has multiple scientific and industrial uses. Although this member is highly utilized, there has not been a sedimentologi- cal study on these rocks in over 50 years, and no study has investigated the full thickness of this member. Past publications have inferred a marine ori- gin as the depositional environment. Here, this marine interpretation is chal- lenged. The goals of this study are to fully document sedimentological and stratigraphic characteristics of the Permian Hutchinson Salt Member in the Atomic Energy Commission Test Hole 2 core from Rice County, Kansas. This study documents colour, mineralogy, sedimentary textures, sedimentary structures, diagenetic features and stratigraphic contacts in core slab and thin sections. The Hutchinson Salt Member is composed of five lithologies: bedded halite, siliciclastic mudstone, displacive halite, bedded gypsum/ anhydrite and displacive gypsum/anhydrite. These lithologies formed in shallow surface brines and mudflats that underwent periods of flooding, evapoconcentration and desiccation. Of note are the paucity of carbonates, lack of marine-diagnostic fossils, absence of characteristic marine minerals and lithofacies, and the stratigraphic context of the Hutchinson with associ- ated continental deposits. The Hutchinson Salt Member was most likely deposited in an arid continental setting. -
Active Surface Salt Structures of the Western Kuqa Fold-Thrust Belt, Northwestern China
Active surface salt structures of the western Kuqa fold-thrust belt, northwestern China Jianghai Li1, A. Alexander G. Webb2,*, Xiang Mao1, Ingrid Eckhoff2, Cindy Colón2, Kexin Zhang2, Honghao Wang1, An Li2, and Dian He2,† 1The Key Laboratory of Orogenic Belts and Crustal Evolution, Ministry of Education, School of Earth and Space Sciences, Peking University, Beijing 100871, China 2Department of Geology and Geophysics, Louisiana State University, Baton Rouge, Louisiana 70803, USA ABSTRACT fold-thrust belt display a variety of erosion- dynamics of salt motion. Although geo scientists tectonics interactions, with nuances refl ect- have interpreted thousands of salt sheets in The western Kuqa fold-thrust belt of Xin- ing the low viscosity and high erodibility of more than 35 basins worldwide (Hudec and jiang Province, China, hosts a series of surface salt, including stream defl ections, potential Jackson, 2006, 2007), subaerial preservation of salt structures. Here we present preliminary tectonic aneurysm development, and even halite salt structures is rare (Talbot and Pohjola, analysis of the geometry, kinematics, and sur- an upper-crustal test site for channel fl ow– 2009; Barnhart and Lohman, 2012). A fraction face processes of three of these structures: the focused denudation models. of these subaerial salt structures occur in active Quele open-toed salt thrust sheet, Tuzima- settings, where boundary conditions of ongoing zha salt wall, and Awate salt fountain. The INTRODUCTION deformation can be geodetically characterized. fi rst two are line-sourced, the third appears The Kuqa fold-thrust belt of Xinjiang Prov- to be point-sourced, and all are active. The Among common solid Earth materials, salt is ince, northwestern China, offers a new prospect ~35-km-long, 200-m-thick Quele open-toed distinguished by uncommonly low density, low for subaerial investigation of a range of active salt thrust sheet features internal folding, viscosity, near incompressibility, high solubil- salt structures. -
Ventures in Salt: Compass Minerals International Rebecca M
08-064 July 10, 2009 Ventures in Salt: Compass Minerals International Rebecca M. Henderson, John Sterman, Ramana Nanda As Michael Ducey, the President and CEO of Compass Minerals International, looked out of his office in Overland Park, Kansas on the evening of December 11, 2003, he wondered how investors would react to his company going public. Ducey had joined Compass Minerals in April 2002 as CEO and strategic investor, a few months after the private equity firm Apollo Management had acquired it from IMC Global.1 Although salt companies were not typical candidates for IPOs, Compass Minerals had done very well in its two years as a stand-alone firm, and Ducey had encouraged his fellow investors to consider exiting via an IPO. With Goldman Sachs leading its IPO the following day, Ducey considered the response of investors and his strategy going forward. Where should he be focusing his attention? How could he ensure that the company lived up to the high expectations of its investors? A Short History of Salt Salt was one of the most widely used minerals in the world. Although it had thousands of applications, in the United States it was primarily used for highway deicing, and as an input into the chemicals, food-processing, water-treatment, and agricultural industries. 1 Although some parts of the current operations of Compass Minerals go back over a hundred years, its most recent structure arose from a series of ownership changes that began in 1998. On April 1, 1998 IMC Global purchased the salt and chemicals businesses of Harris Chemical Group ($450 MM in cash and $950 MM raised in debt), including the North American Salt Company, the Great Salt Lake Minerals Corp in the US, and Salt Union in the UK. -
Contents Illustrations
Manufacturing Process & Waste Discharges.......... 4 Salt Industry ...................................................................4 Historical Sketch of the Salt Industry....................... 4 Construction Practices from 1881 until 1954........... 5 Construction Practices from 1954 until 1970........... 5 Contemporary Operating and Monitoring Practices 5 Practices of the Morton Salt Company.........................5 Practices of the Hardy Salt Company ..........................6 Evaluation of Operating and Monitoring Practices .......6 Chemical Brine Industry .................................................7 Historical Sketch of the Chemical Brine Industry .... 7 Construction Practices from 1927 unti1 1970 ......... 8 Contemporary Operating and Monitoring Practices 8 Practices of the Morton Chemical Company ................8 Practices of the Standard Lime and Refractories.........8 Evaluation of Operating and Monitoring Practices .......9 Location of Salt and Chemical Brine Wells ....................9 HISTORY OF THE SALT, BRINE AND PAPER GROUND WATER AND CONTAMINANTS ......................9 INDUSTRIES AND THEIR PROBABLE EFFECT ON THE GROUND WATER QUALITY IN THE Domestic Water Supply..................................................9 MANISTEE LAKE AREA OF MICHIGAN Ground Water and Aquifer Characteristics ..................10 General Geology of the Manistee Lake Area ........ 10 Definition of Aquifer Characteristics ...................... 11 Definition of Ground Water Quality........................ 11 Contaminants ...............................................................11