Geological Sciences Courses
Evaluate and develop effective scientific communication skills including writing, oral presentations and poster presentations.
The course will cover the geologic events that lead to the formation of petroleum systems and plays. Geologic events form sedimentary basins by causing subsidence and delivery of sediments to a basin. This sedimentary fill is modified by compaction as well as the transport of heat and reactive fluids through the rock matrix during sedimentation and lithification. These processes determine the amount and nature of oil and/or gas accumulation and production in a basin. Petroleum system analysis requires the integration of geology, geophysics, petrophysics, geochemistry, and risk analysis. The generated basin models incorporate data obtained directly from outcrops via geologic mapping, petrographic thin section analysis, geochemical data, seismic reflection profiles and well log analysis if there are wells drilled for oil and gas exploration in a sedimentary basin.
An introduction to fundamental concepts in biogeochemistry, a scientific discipline that integrates the study of geological, physical, chemical, and biological principles that govern the natural environment. The course discusses the lithosphere, hydrosphere, atmosphere, and biosphere, and emphasizes their interactions and connectivity through the cycles of elements and energy. Students will learn through lectures, discussions, field trips, and laboratory exercises.
This is an introductory course to molecular biomarkers, which are a group of source-specific compounds preserved in the environment. Biomarkers have core structures that are generally resistant to environmental degradation. These structures allow tracing back to the source biota and making interpretations of modern and past activities of life and associated environmental and climatic changes. Lectures acquaint students with different classes of biomarkers and their applications to geological and environmental research. Labs familiarize students with the analytical methods including extraction, purification, chromatographic separation, and instrumental analysis of biomarkers.
This class provides theoretical foundation for understanding and quantifying watershed hydrologic processes. The course covers key hydrological processes taking place at or near the Earth’s surface (including rainfall, streamflow, open channel flow, surface runoff, and atmospheric water) and hydrologic analysis (such as unit hydrograph and lumped flow routine).
An advanced level hydrogeology course that investigates groundwater flow and continuum approach in groundwater hydrology, applied stochastic subsurface hydrology, development of governing groundwater flow equations, analytical and numerical modeling of groundwater flow, unsaturated flow, well hydraulics, and environmental topics of interest related to water resources.
Methods for restoring contaminated soil and groundwater by examining the factors and processes influencing the efficacy of remediation systems. An emphasis will be placed on the scientific principles upon which soil and groundwater remediation is based.
This course will cover topics related to the transport and fate of contaminants in subsurface systems. Specifically, this course will discuss the many factors and processes influencing contaminant transport such as the effects of dispersion, inter-phase mass transfer, transformation reactions, and porous-media heterogeneity. In addition, representative conceptual/mathematical models describing contaminant transport phenomena will be discussed.
Study of metamorphic processes, types, textures, and petrogenesis and the use of metamorphic rocks for understanding tectonism. Offered on demand.
Rheologic properties of magmatic systems and application of these principles to the understanding of volcanic processes. Offered on demand.
Three hours of lecture. The study of glaciers and ice sheets, their growth and decay, response to climate change, the history of glaciation and glacial contribution to sea-level rise.
Examination of the evolution and development of sedimentary basins. Emphasis is on sedimentary, tectonic, and geochemical processes and their influence in petroleum generation, accumulation, and preservation. Offered on demand.
Advanced topics in the following areas: economic geology, geochemistry, geohydrology, geophysics, geomorphology, mineralogy, paleontology, petrology, sedimentation, stratigraphy, structural geology, and tectonics. Offered on demand.
Oral presentations on current geological topics. Offered fall and spring semesters.
Oral presentations on current geological topics. Offered fall and spring semesters.
This graduate-level course provides an in-depth theoretical and quantitative framework for understanding and modeling the physical and hydrological properties of soils. Emphasis is placed on advanced concepts and analytical techniques related to mass and thermal transport in variably saturated soils. Graduate students will engage with contemporary research literature and perform quantitative analyses that go beyond the undergraduate level. Applications in environmental science and hydrologic modeling will be emphasized, including development and implementation of analytical and numerical models.
Introduction to the structure of the Earth's interior and theory of plate tectonics. Quantitative analysis of the physical processes governing the formation of major tectonic and magmatic features on the Earth. Emphasis is on understanding geodynamic processes in orogenic belts, volcanic arcs, intraplate magmatism, sedimentary basins and continental extensional provinces. Offered spring semester.
This graduate-level course provides a rigorous theoretical and applied framework for understanding and quantifying surface water-groundwater (SW-GW) interactions. Emphasizing the physical, chemical, and biological processes in the hyporheic zone, the course explores dynamic exchanges between surface and subsurface hydrologic systems. Graduate students will engage in critical analysis of recent scientific literature and complete quantitative modeling assignments to develop research-level skills applicable to environmental geoscience, hydrology, and water resources engineering.
This course serves as an introduction to statistics for the Earth and Environmental Sciences. Topics include an introduction to probability theory, experimental design, statistical hypothesis testing, regression, clustering, Kriging and other forms of spatial analysis, time series analysis, and an introduction to machine learning. All material is covered theoretically and with practical implementation in Matlab. Computing proficiency is required for a passing grade in this course. Writing proficiency is required for a passing grade in this course. A student who does not write with the skill normally required of an upper-division student will not earn a passing grade, no matter how well the student performs in other areas of the course. The course includes two lectures and one computer lab weekly.
The objective of this course is to introduce students to currently used isotope techniques in aquatic science. Emphasis will be given to the application of the U/Th- naturally occurring radioactive decay series.
This course will involve operation and use of the scanning electron microscope (SEM) for applications relevant to the Earth, environmental, and planetary sciences. Topics will include sample preparation, secondary electron imaging, backscattered electron imaging, x-ray element mapping, and energy/wavelength dispersive spectroscopy. Laboratory exercises will provide hands-on experience in preparing geologic samples and obtaining data on those samples with the SEM.
This graduate course provides a foundational understanding of mathematical modeling for flow processes, ranging from conceptual models to advanced finite difference models. It covers main aspects of groundwater modeling, including physical principles, numerical methods, and widely used software, making it ideal for students in geology, hydrology, and civil engineering with limited modeling experience. The course emphasizes practical skills essential for graduate students with future careers in engineering, oil production, environmental consulting, and academia.
This graduate-level course (cross listed with GEO 462) focuses on contaminant transport modeling in surface and groundwater - an essential tool in water protection and cleanup. With billions spent annually on remediation, accurate prediction of contaminant behavior is crucial. The course covers physical processes, mathematical frameworks, and numerical methods, equipping graduate students in hydrology and civil engineering with the skills to develop and analyze contaminant transport models. Graduate students will gain hands-on experience in all stages of modeling, from formulating differential equations to post-processing, guided by the instructor’s two decades of practical expertise.
Analysis of the original literature on structural families and deformation-mechanism associations, emphasizing the low-temperature environment.
This course in Planetary Science will provide an overview of the major processes that have shaped our Solar System, with some focus on extra-terrestrial materials and associated data. The course will examine the major aspects of our Solar System, considering physical, chemical and geological concepts. We will explore the different bodies in the Solar System, and learn from the data collected from missions and analytics on samples.
Weekly seminar meetings on ‘Paleo’ topics as guided by enrolled students. Typical semesters will focus on specific areas or concepts within Paleo-related sciences, including, but not limited to paleobiology, paleoclimatology, and paleoecology. Meeting times may also be used to discuss active Paleo research by participating students, faculty, or visiting scholars.
This course is an introduction to concepts of stable isotope fractionation, and the application of stable isotopic measurements to answering geological questions. This class specifically focuses on light elements, primarily H, C, O, S, and N, though other elements/systems may be explored if there is time/interest.
Introduction to the field of low-temperature geochemistry (elementary chemical equilibria and thermodynamics, solubility and redox equilibria, organic geochemistry), with an emphasis on solving geologic problems. Three lectures and one seminar per week. Offered in the Spring semester.
This course in cosmochemistry and analytical techniques will examine notable topics, geological concepts and analytical methods used to better understand our Solar System. The course will be part-lecture and part discussion/seminar based, where students will read journal articles on topics and make short presentations for discussion, to develop scientific curiosity and critical thinking. Writing proficiency within the discipline is required for a passing grade in this course.
Study of tectonics, plate motions, and tectonic environments. Includes discussion of controlling factors, driving forces, and resulting structures with emphasis on island arcs, trenches, backarc basins, transform boundaries, and continental margins. Offered alternate spring semesters or on demand.
Field and laboratory projects with government and industry.
Non-Thesis Research.
This independent research course partially fulfills required master’s-level research thesis hours toward the master’s degree in Geology (Geological Sciences). The course is conducted under the guidance of the thesis advisor. Material covered will be of an advanced nature aimed at providing master's students with an understanding of the latest research and current developments within the field. Discussion and advisor guidance will be directed towards readings of research articles and development of research methodology, with the aim of producing an original research contribution that represents a novel development in the field, or a novel perspective on a pre-existing topic in the field.
Evaluate and develop effective scientific communication skills including writing, oral presentations and poster presentations.
Introduction to the theory and application of groundwater modeling.
Introduction to concepts and models in contaminant hydrogeology.
Advanced topics in the following areas: economic geology, geochemistry, geohydrology, geophysics, geomorphology, mineralogy, paleontology, petrology, sedimentation, stratigraphy, structural geology, and tectonics. Offered on demand.
Oral presentations on current geological topics. Offered fall and spring semesters.
Oral presentations on current geological topics. Offered fall and spring semesters.
Non-Dissertation Res.
This independent research course partially fulfills required doctoral-level research dissertation hours toward the doctoral (Ph.D.) degree in Geology (Geological Sciences). The course is conducted under the guidance of the dissertation advisor. Material covered will be of an advanced nature aimed at providing doctoral students with an understanding of the latest research and current developments within the field. Discussion and advisor guidance will be directed towards readings of research articles and development of research methodology, with the aim of producing an original research contribution that represents a novel development in the field, or a novel perspective on a pre-existing topic in the field.