This course will cover the application of geophysical investigation techniques to problems of the earth's plantary structure, local subsurface structure and mineral prospecting. The topics will include principles of geophysical measurements and interpretation with emphasis on gravity measurement, isostasy, geomagnitism, sesmic refraction and reflection,electrical prospecting, electromagnetics and groung radar.

Chemistry, physics, phase equilibria, microscope study in igneous and metamorphic petrology.

Chemistry, physics, phase equilibria, microscope study in igneous and metamorphic petrology.

This course will introduce students to the principles of remote sensing, characteristics of remote sensors, and remote sensing applications. Image acquisition, data collection in the electromagnetic spectrum, and data set manipulations for earth and environmental science applications will be emphasized. We will cover fundamental knowledge of the physics of remote sensing; aerial photographic techniques; multispectral, hyperperspectral, thermal, and other image analysis. Students will pursue an independent research project using remote sensing tools, and at the end of the semester should have a good understanding and the basic skills of remote sensing.

This course deals with the study of the two main parts of Earth's climate system, the atmosphere and the ocean. It explores, qualitatively and quantitatively,the physical laws, geological and geographical processes, and mass and energy budgets that govern these two parts and their combined influence on Earth's past and present climate. Main topics covered include, but not limited to, properties of air and water; physical balances; equilibrium states; transport of heat and mass; clouds; precipitation; storms; regional and global climate; ozone layer; seasons and climate; weather forecasting; atmospheric optics; ocean currents; ocean bathymetry, salinity, and atmospheric forcing; history of Earth's changing climate in the geologic record, global warming, and how climate impacts humans and how do humans impact climate.

This course deals with the study of the two main parts of Earth's climate system, the atmosphere and the ocean. It explores, qualitatively and quantitatively,the physical laws, geological and geographical processes, and mass and energy budgets that govern these two parts and their combined influence on Earth's past and present climate. Main topics covered include, but not limited to, properties of air and water; physical balances; equilibrium states; transport of heat and mass; clouds; precipitation; storms; regional and global climate; ozone layer; seasons and climate; weather forecasting; atmospheric optics; ocean currents; ocean bathymetry, salinity, and atmospheric forcing; history of Earth's changing climate in the geologic record, global warming, and how climate impacts humans and how do humans impact climate.

This seminar is designed to help Juniors prepare for the Senior Thesis research. Topic selection, advisor identification, funding options, and basic research methods will be discussed.

Occurrences and origins of igneous and metamorphic rocks; phase equilibria in heterogeneous systems. Laboratory study of rocks and thin sections as a tool ininterpretation of petrogenesis.

Occurrences and origins of igneous and metamorphic rocks; phase equilibria in heterogeneous systems. Laboratory study of rocks and thin sections as a tool ininterpretation of petrogenesis.

Patterns 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.