This course is designed to introduce the major definitions and concepts regarding groundwater flow and contaminant transport. The theory and underlying concepts, including mathematical derivations of governing equations used to model groundwater flow and contaminant transport, will be discussed and applications to environmental problems addressed. Upon completion of this course, students should expect to have acquired the skills necessary to pursue course work in flow and transport numerical and analytical modeling.

Statistical analysis of data from geological, geotechnical, and geohydrologic sources.

The superfund law authorizes the president to respond to releases of hazardous substances into the environment in order to protect public health and the environment. This course will focus on topics related to such responses, including environmental investigation and risk assessment, environmental remediation techniques, and related topics.

The evaluation of technical, social and economic constraints on the design of water supply and sanitation projects. The focus on sustainable design emphasizes how technical solutions fit within the appropriate social context. Case studies are used to demonstrate these principles across a range of examples from developed and developing countries including detailed studies from rural communities with limited resources.

Pattern on the Earth's surface arise due to the transport of sediment by water and wind, with energy that is supplied by climate and tectonic deformation of the solid Earth. This course presents a treatment of the processes of erosion and deposition that shape landscapes. Emphasis will be placed on using simple physical principles as a tool for (a) understanding landscape patterns including drainage networks, river channels and deltas, desert dunes, and submarine channels, (b) reconstructing past environmental conditions using the sedimentary record, and (c) the management of rivers and landscapes under present and future climate scenarios. The course will conclude with a critical assessment of landscape evolution on other planets, including Mars.

The culmination of the Earth Science major. Students, while working with an advisor in their concentration, conduct research and write a thesis. Prerequisite: GEOL 400-level and declaration of the EASC major. The Earth Science major, as of the fall of 2008, requires 1 semester of GEOL 399 and two semesters of GEOL 498.

The culmination of the Earth Science major. Students, while working with an advisor in their concentration, conduct research and write a thesis. Prerequisite: GEOL 400-level and declaration of the EASC major. The Earth Science major, as of the fall of 2008, requires 1 semester of GEOL 399 and two semesters of GEOL 498.

The culmination of the Earth Science major. Students, while working with an advisor in their concentration, conduct research and write a thesis. Prerequisite: GEOL 400-level and declaration of the EASC major. The Earth Science major, as of the fall of 2008, requires 1 semester of GEOL 399 and two semesters of GEOL 498.

The culmination of the Earth Science major. Students, while working with an advisor in their concentration, conduct research and write a thesis. Prerequisite: GEOL 400-level and declaration of the EASC major. The Earth Science major, as of the fall of 2008, requires 1 semester of GEOL 399 and two semesters of GEOL 498.

The culmination of the Earth Science major. Students, while working with an advisor in their concentration, conduct research and write a thesis. Prerequisite: GEOL 400-level and declaration of the EASC major. The Earth Science major, as of the fall of 2008, requires 1 semester of GEOL 399 and two semesters of GEOL 498.