Geochemistry of Energy Fuels Task
Geologic and geochemical processes that impact fuel quality, quantity, and availability can be best understood by utilizing a range of approaches, including, but not limited to isotopic signatures, inorganic and organic analyses, and neutron scattering techniques. Current work focuses on using neutron scattering to understand how fluids are stored and flow through tight continuous reservoirs and the use of statistical machine learning techniques to classify waste products from energy utilization. Work in this task is used to inform assessments and land managers.
Below are other science projects associated with this project task.
Geochemistry of Energy Fuels Project
Molecular Fingerprinting of Energy Materials
Byproducts of Energy Fuels
NORM Byproducts of Energy Resources
Microbial Methanogenesis and Strategies for Enhancements
Maps of Energy Occurrence
Below are publications associated with this project task.
Exploring methane behavior in Marcellus Shale micropores via contrast matching neutron scattering Exploring methane behavior in Marcellus Shale micropores via contrast matching neutron scattering
Compositional data analysis of coal combustion products with an application to a Wyoming power plant Compositional data analysis of coal combustion products with an application to a Wyoming power plant
Radiocarbon chronometry of Site QJ-280, Quebrada Jaguay, a terminal Pleistocene to early Holocene fishing site in southern Peru Radiocarbon chronometry of Site QJ-280, Quebrada Jaguay, a terminal Pleistocene to early Holocene fishing site in southern Peru
Subseasonal variations in marine reservoir age from pre-bomb Donax obesulus and Protothaca asperrima shell carbonate Subseasonal variations in marine reservoir age from pre-bomb Donax obesulus and Protothaca asperrima shell carbonate
Porosity of the Marcellus Shale: A contrast matching small-angle neutron scattering study Porosity of the Marcellus Shale: A contrast matching small-angle neutron scattering study
Nanometre-sized pores in coal: Variations between coal basins and coal origin Nanometre-sized pores in coal: Variations between coal basins and coal origin
Geologic and geochemical processes that impact fuel quality, quantity, and availability can be best understood by utilizing a range of approaches, including, but not limited to isotopic signatures, inorganic and organic analyses, and neutron scattering techniques. Current work focuses on using neutron scattering to understand how fluids are stored and flow through tight continuous reservoirs and the use of statistical machine learning techniques to classify waste products from energy utilization. Work in this task is used to inform assessments and land managers.
Below are other science projects associated with this project task.
Geochemistry of Energy Fuels Project
Molecular Fingerprinting of Energy Materials
Byproducts of Energy Fuels
NORM Byproducts of Energy Resources
Microbial Methanogenesis and Strategies for Enhancements
Maps of Energy Occurrence
Below are publications associated with this project task.