Environmental Geology – E&PS 333

Spring 2008

Dr. Gary Smith

gsmith@unm.edu

Monday-Wednesday-Friday, 9:00-9:50 am

Prerequisite: E&PS 101 and 105L, or Env Sc 101 and 102L; Math 121

Text: There is no textbook; reading assignments will be made from a variety of sources with copies available on the WebCT site for the course.

 

Burial of low-level radioactive waste at Hanford, Washington.

(photo by Gary Smith)

Destruction by 5-m deep mudflows from Pinatubo volcano, Philippines

(photo by NOAA)

Copper mine, Silver City, New Mexico

(photo by Gary Smith)

 

 

Requirements Satisfied:

E&PS 333 satisfies:

 Upper-division elective requirements for the minor, and B.A. and B.S. in E&PS

 Counts toward completion of requirements in the Geoscience OR Surface Processes groups for the B.S. and minor in Env Sc

 Can be applied to satisfying requirements for the secondary-education earth science program (College of Education)

 Counts toward the University Core Curriculum in physical and natural sciences

E&PS 333 also satisfies requirements for upper-division courses at the college level (for example: College of Arts and Sciences students must complete 42 hours of 300- and 400-level courses for graduation). E&PS 333 is available for graduate credit for non-E&PS students; graduate students will be required to complete additional work to obtain graduate credit.

Course Objectives:

To learn how geological processes affect human interaction with the natural world, and how geological information is incorporated in risk analysis and decision making. Considerable emphasis is placed on how to "do science" - objective application of scientific method to understand and solve societally relevant geological problems.  Scroll down to read student learning outcomes for the course.

Course Format:

Class sessions include short lectures, discussion and problem solving with an emphasis on application of geological knowledge and concepts to problems that relate to humans interaction with their environment. Case studies form a large part of the course. Problem-solving assignments (completed individually or in groups; in class, as homework, and online in WebCT) comprise a large part of students’ grades. Likely discussion topics include:

Geology as applied science - What is science? What is the difference between basic and applied science? How is science done in the political/economic arena? How does geoscience relate to decision making and evaluation of environmental risk?

Water resources - How are surface and ground water resources allocated to users? What geological factors determine the quantity and quality of water? How is water quality put at risk by human activities? How does groundwater move and how can contaminant transport be predicted?

Waste disposal - What is hazardous waste (including radioactive waste)? What geological factors determine the extent to which waste can be isolated in the environment?

Geological Hazards - How are the risks and impacts of hazards such as earthquakes, flood, volcanic eruptions, landslides, and coastal erosion recognized and avoided?

Energy and Mineral Resources - What geological factors determine the formation and location of economically valuable resources? What risks to the environment are associated with the extraction of these resources.

Environmental Geology Issues in New Mexico - Water supply in the Rio Grande Valley, Superfund site in downtown Albuquerque, arsenic in ground water, isolation of radioactive waste at WIPP, contaminant transport at Los Alamos, etc.

Student Learning Outcomes

General outcomes:

·        Distinguish a testable scientific hypothesis or data-supported interpretation from a politically advocated viewpoint.

·        Use data to compose scientific interpretations/conclusions.

·        Explain the scientific aspects of a problem to nonscientists in a fashion that enhances understanding and decision-making.

Topical outcomes:

·        Obtain/compile, illustrate, and interpret relevant data to determine direction and rate of ground-water flow, and transport of ground-water contaminants.

·        Explain and predict the effects of ground-water withdrawal on water levels and on ground-water flow.

·        Distinguish between natural and anthropogenic controls on stream discharge and explain interactions between surface water and ground water.

·        Explain the origin and characteristics of nuclear-waste types and scientific issues related to disposal and remediation of nuclear waste.

·        Use geologic information to determine spatially varying risk of damage and fatalities due to earthquakes, volcanic eruptions, river and coastal flooding, and coastal erosion.

·        Use basic probability to assess geologic-hazard risk.

·        Explain some of the geologic processes that determine the origin, economic value, and environmentally sound extraction of earth resources.

·        Explain the geologic background behind some headline environmental geology issues affecting New Mexicans – e.g., Albuquerque ground-water depletion, Rio Grande water allocation and drought effects, new arsenic standard for drinking water, coal-bed methane extraction, and radioactive-waste transport at Los Alamos National Laboratory.

Skill outcomes:

·        Organize knowledge to support the writing of concise, comprehendible, and scientifically defendable interpretations.

·        Utilize Excel spreadsheets for data entry, algebraic calculations, and data graphics (optional).