or ERS 1300 - Oil: Business, Culture, and Power (USP:H) or ERS 1310 - The Water-Energy-Climate Nexus (USP:PN)
- Subject
- ERS
- Type
- course
- Edition
- 2026-2027
- Source
- www.uwyo.edu
42 courses with the subject ERS, each shown exactly as we captured it from the college's catalog, with every element we hold. Where the wording looks broken, that is our reading of the catalog, not the college's text.
or ERS 1300 - Oil: Business, Culture, and Power (USP:H) or ERS 1310 - The Water-Energy-Climate Nexus (USP:PN)
meet the First Year Seminar (FYS) requirement of the 2015 University Studies Program. Through focused research and critical examination of diverse information, students will explore how energy resource use and development has shaped Wyoming: past, present, and future. The course will actively engage students in meaningful issues through an interdisciplinary approach to promote thoughtful and informed dialogue targeting Wyoming's energy resource use and development 3 USP 2015 Code: U5FY ss, Culture, and Power A multi-disciplinary approach to understanding how oil affects the international relations and commerce. The relationships between oil technology, social and political institutions, the unique cultures in oil-producing regions will be investigated in case studies. Max Credit: 3 Cross Listed: ECON 1300 . USP 2003-2014 Code: U3CS, U3G USP 2015 Code: U5H A&S College Core 2015: ASG
(USP:H) or ERS 1310 - The Water-Energy-Climate Nexus (USP:PN)
Among the grand challenges facing humanity, arguably the most significant are water, energy, and climate. These issues are, however not isolated but intimately connected, i. e. water- energy-climate (WEC) nexus. Using critical thinking and problem-solving skills, the significance of the WEC nexus to humanity will be explored from STEM and non-STEM perspectives. Max Credit: 3 Cross Listed: 1047
Provides an introduction to land management in the various energy industries. Covers the knowledge and skills needed by land professionals including survey systems, land descriptions, mineral ownership, title examination, leases, surface use agreements, and contracts frequently used in the industry. In addition, provides an overview of ethical issues that arise and professional conduct expected in the industry. Max Credit: 3
Communications (USP:C2)
Provides an overview of air quality management approaches. In this course an interdisciplinary approach is adopted that includes diverse information from physical, natural and socioeconomic systems. With consideration of global and local issues this class focuses upon the energy sector. Max Credit: 3
Elective Courses-
The purpose of this course is to provide students with information and skills necessary to understand the oil and gas modeling process from exploration to production. Topics will include geophysical exploration, seismic acquisition, geophysical modeling, reservoir characterization, reservoir production, well planning and decision making. Max Credit: 3
Provides an overview of the science behind current and future solar thermal and photovoltaic technologies. Environmental aspects, legal issues and cost associated with solar energy will also be included.
This course provides an overview of fundamental property skills in real-estate ownership, pre-law, etc. Property I addresses the nature of property ownership and the rights associated with property as well as the acquisition and transfer of ownership rights in property and the sharing of ownership rights over time, including estates, future interest, and concurrent estates. Max Credit: 3
Rights inherent to ownership of property and public limitations on those rights. The course addresses encumbrances against fee estates: leasehold interests, easements and covenants. Students examine the creation/scope of easements and covenants, the regulation of property interests through nuisance and zoning law and the fundamentals of the landlord-tenant relationship. Max Credit: 3
Students study contract formation (offer, acceptance, consideration), interpretation, remedies, and defenses, applying common law principles to real-world contractual relationships. Max Credit: 3
The course examines the acquisition and disposition of the public domain, federal and state regulatory authority, and the management of hard rock, energy, and range resources. Specifically, this course will cover the history of and the statutory framework for the development of federal public lands and resources. Max Credit: 3
780
Energy development/financing arrangements including assignments, leases, farmouts, joint operating agreements, purchase and sale agreements, service agreements and marketing agreements. Energy development regulation of oil and gas conservation commission and state and federal environmental regulation. Ethics of oil and gas, renewables, nuclear, CCUS, hydrogen, and various agreement/regulatory nuances of energy development. Max Credit: 3
or ME 4203 - Nuclear Materials Core Courses -
This course will provide an overview of fuel cycles employed in the nuclear industry. Topics examined will include uranium mining, milling, conversion, and enrichment, different fuel forms and their fabrication, the radiochemical composition of used fuel, and backend strategies for used fuel storage and reprocessing. A particular emphasis will be placed on the chemical separations strategies employed throughout the fuel cycle. Max Credit: 3
An overview of analytical techniques commonly employed in the characterization of nuclear material. Topics covered will include a review of nuclear fuel cycle and relevant radiochemical processes, sampling techniques, radiochemical separations, spectroscopy, mass spectrometry, and radioanalytical methods. Max Credit: 3
An overview of materials commonly employed in nuclear reactors and their interactions with radiation. Topics covered will include atomic-level mechanisms responsible for radiation damage, the formation and transport of defects in materials, a survey of important oxide, ceramic, and metallic materials employed in fuel assemblies, and corrosion in nuclear reactors. Max Credit: 3
An overview of scientific and engineering principles underlying nuclear energy generation. Topics will include basic atomic physics, radioactive decay, nuclear fission and fusion, neutron transport, criticality conditions, reactor kinetics, and an introduction to numerical methods employed in the modeling of nuclear reactors. Max Credit: 3
or ME 4204 - Nuclear Energy Physics or ME 4205 - Nuclear Power Systems Certificate - 15 credit hours Core Courses -
To stabilize climate change, carbon capture and storage (CCS) is a key option for deeply reducing carbon dioxide (CO2) emissions from fossil fuel-fired energy systems. This course offers a systematic view of CCS and then addresses technical, economic, and policy issues related to CCS and its applications. Max Credit: 3
Various aspects of Carbon Capture, Utilization and Storage, including Policy & Regulations, Geology, Geostatistics, and Engineering. Students will learn geological concepts, models of the subsurface, engineering of fluids and flow, policy and regulations related to CO2 emissions, pore-volume use, injection, monitoring and safety. Max Credit: 3
(USP:H) Certificate - 21 credit hours Core Courses -
Introduces students to key methods used to evaluate investments in energy projects from the perspective of the developer as well as the lender and other stakeholders. Topics include project finance modeling, techno-economic considerations, business structures, regulatory and legal issues, risk analysis, and deal terms. Max Credit: 3
Various facets of energy resource management and development are covered by visits to oil and gas wells, coal mines, power plants, wind farms, and other energy production and research sites. A trip is normally planned for 5 to 6 days. Max Credit: 3
Research activities on an energy related project of limited scope or as part of a laboratory project of greater scope under the advisement of a faculty member. Students will work approximately 45 hours per credit enrolled. Max Credit: 6
A formalized internship designed to provide students with relevant practical experience in the energy sector allowing synthesis and application of principles in energy science to energy asset management. Max Credit: 6
A 1-week to 1-month experiential learning opportunity focused on energy. Students will participate, in collaboration with energy professionals, in outcomes-focused education and research programs designed to address globally relevant energy challenges. Students will gain a hands-on perspective of real- world energy practices. Max Credit: (Max. 6)
Energy professionals, including accredited professional landmen, practicing attorneys, and other energy professionals will present a colloquium styled course to bridge conceptual content with realistic workforce focused applications. Max Credit: (Max. 6)
or ME 5203 - Nuclear Materials in Core Courses -
This course will provide an overview of fuel cycles employed in the nuclear industry. Topics examined will include uranium mining, milling, conversion, and enrichment, different fuel forms and their fabrication, the radiochemical composition of used fuel, and backend strategies for used fuel storage and reprocessing. A particular emphasis will be placed on the chemical separations strategies employed throughout the fuel cycle. Max Credit: 3
An overview of analytical techniques commonly employed in the characterization of nuclear material. Topics covered will include a review of nuclear fuel cycle and relevant radiochemical processes, sampling techniques, radiochemical separations, spectroscopy, mass spectrometry, and radioanalytical methods. Max Credit: 3
An overview of materials commonly employed in nuclear reactors and their interactions with radiation. Topics covered wil include atomic-level mechanisms responsible for radiation damage, the formation and transport of defects in materials, a survey of important oxide, ceramic, and metallic materials employed in fuel assemblies, and corrosion in nuclear reactors. Max Credit: 3
An overview of scientific and engineering principles underlying nuclear energy generation. Topics will include basic atomic physics, radioactive decay, nuclear fission and fusion, neutron transport, criticality conditions, reactor kinetics, and an introduction to numerical methods employed in the modeling of nuclear reactors. Max Credit: 3
An overview of reactor engineering concepts in the context of current and emerging nuclear reactor designs. Topics to be covered include power plant design, heat generation in reactor cores, fluid mechanics and heat transfer, and reactor thermal hydraulics. Max Credit: 3
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Source: University of Wyoming's catalog, linked per course · table learning_unit · CourseShelf publish 59