Groundwater prospecting for sandstone-type uranium deposits [electronic resource] : the merits of mineral-solution equilibria versus single element tracer methods. Volume II.
- Published:
- Oak Ridge, Tenn. : Distributed by the Office of Scientific and Technical Information, U.S. Dept. of Energy, 1981.
- Physical Description:
- Pages: 99 : digital, PDF file
- Additional Creators:
- Colorado School of Mines and United States. Department of Energy. Office of Scientific and Technical Information
Access Online
- Restrictions on Access:
- Free-to-read Unrestricted online access
- Summary:
- This report presents the results of further research on the groundwater geochemistry of 96 well waters in two uraniferous aquifers in Texas and Wyoming, and is a continuation of the work presented by Chatham et al. (1981). In this study variations in concentrations of U, As, Mo, Se and V were compared with the saturation state of the groundwater with respect to mineral phases of these elements known or expected to occur in each area. The non-radiogenic trace elements exhibited strong redox dependence consistent with thermodynamic predictions, but their variations did not pinpoint existing uranium ore bodies, because of a shift in groundwater flow patterns since the time of ore emplacement. Saturation levels of trace element minerals such as realgar, native Se, and molybdenite showed broad anomalies around the ore-bearing areas, similar to patterns found for U minerals by Langmuir and Chatham (1980), and Chatham et al. (1981). The radiogenic elements Ra and Rn showed significant anomalies directly within the ore zones. Helium anomalies were displaced in the direction of groundwater flow, but by their magnitude and areal extent provided strong evidence for the existence of nearby uranium accumulations. Uranium isotope ratios showed no systematic variations within the two aquifers studied. Saturation maps for kaolinite, illite, montmorillonite and the zeolites analcime and clinoptilolite provided 1 to 2 km anomalies around the ore at the Texas site. Saturation values for the gangue minerals pyrite and calcite defined the redox interface and often suggested the position of probable uranium mineralization. When properly used, the groundwater geochemical concepts for exploration can accurately pinpoint uranium mineralization at a fraction of the cost of conventional methods that involve test drilling and geophysical and core logging.
- Report Numbers:
- E 1.99:gjbx-404-81
E 1.99: gjo-79-360-e-vol.2
gjo-79-360-e-vol.2
gjbx-404-81 - Subject(s):
- Other Subject(s):
- Ground Water
- Geochemical Surveys
- Texas
- Uranium Deposits
- Exploration
- Wyoming
- Analcime
- Aquifers
- Arsenic
- Calcite
- Clinoptilolite
- Data Analysis
- Helium
- Illite
- Kaolinite
- Molybdenum
- Montmorillonite
- Pyrite
- Radium
- Radon
- Selenium
- Uranium
- Vanadium
- Zeolites
- Actinides
- Alkaline Earth Metal Compounds
- Alkaline Earth Metals
- Aluminium Compounds
- Aluminium Silicates
- Calcium Carbonates
- Calcium Compounds
- Carbon Compounds
- Carbonate Minerals
- Carbonates
- Chalcogenides
- Clays
- Elements
- Federal Region Vi.
- Federal Region Viii
- Fluids
- Gases
- Geologic Deposits
- Hydrogen Compounds
- Inorganic Ion Exchangers
- Ion Exchange Materials
- Iron Compounds
- Iron Sulfides
- Materials
- Metals
- Mineral Resources
- Minerals
- Nonmetals
- North America
- Oxygen Compounds
- Rare Gases
- Resources
- Semimetals
- Silicate Minerals
- Silicates
- Silicon Compounds
- Sulfide Minerals
- Sulfides
- Sulfur Compounds
- Surveys
- Transition Element Compounds
- Transition Elements
- Usa
- Water
- Note:
- Published through SciTech Connect.
08/01/1981.
"gjbx-404-81"
" gjo-79-360-e-vol.2"
"DE82005556"
Wanty, R.B.; Langmuir, D.; Chatham, J.R.
Bendix Field Engineering Corp., Grand Junction, CO (USA) - Funding Information:
- AC13-76GJ01664
View MARC record | catkey: 14667516