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Note: This page provides a general overview. For complete and accurate information, please consult the M.Eng. Student Services Coordinator. For current course offerings and information, refer to the Cornell University Registrar: Courses of Study.
Degree Requirements
The Earth Science and Engineering M.Eng. program is intended to extend and broaden your background and to develop competence in a defined number of subject categories. Students typically take about 4 courses a semester, with the remaining credit hours involving their research project.
- The curriculum must include a minimum of 30 credit hours in technical coursework at the 5000 level or higher. No more than two credits may be graded on an S/U basis. At least 21 of the credits must be from Cornell.
- Students must take at least 15 credit hours from engineering programs outside of Earth and Atmospheric Sciences (EAS). The students may petition to take less than 15 engineering credits outside of EAS, but 10 credits must be taken from engineering programs outside of EAS to satisfy the design requirement of the M.Eng. program. The petition requests are assessed by the M.Eng. Director.
- It is required to take a minimum of six credit hours of EAS 5000, which is a project design class offered by the student’s M.Eng. advisor. Work done under EAS 5000 must furthermore involve a distinct design component. The topic of the M.Eng. project is at the discretion of the M.Eng. advisor, but it is often discussed between the student and the advisor before the student starts their degree.
- A minimum of 12 credit hours must be taken from the Department of Earth and Atmospheric Sciences, including coursework, M.Eng. project, and seminar classes.
Additional rules apply, and students are encouraged to meet with the M.Eng. director to review them.
Concentration Areas
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Atmospheric Science
Meteorology, applied climatology, air quality, aerosols, and climate change.
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Remote Sensing
Remote sensing involves utilization of satellite- and airborne-based remote sensing approaches for time series analysis, land-use change, and understanding of subsurface phenomena. Use of large datasets and GIS technology.
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Subsurface Resources and Energy Systems
Energy reservoirs and subsurface energy engineering, including geomechanics, flow in porous media, geology, geochemistry, numerical modeling, and Artificial Intelligence.
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Applied and Environmental Geophysics
Geophysics, seismology, geology, porous media flow, and computer methods. Methods include field work, laboratory testing, numerical modeling, and AI.
Note: Our M.Eng. degree includes a range of concentrations, with the goal of matching research areas that interest students with the core competencies of our faculty. These concentration areas cover many of the focus areas explored by our students, but we have the flexibility to accommodate other concentrations within the Earth and Atmospheric Sciences as well.
Sample Relevant Courses
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AEP 5100
Introductory mathematical physics
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BEE 5270
Water measurement and analysis methods
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BEE 6310
Multivariate statistics for environmental applications
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CEE 5795
Sensors for the built and natural environments
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CEE 6000
Numerical Methods for Engineers
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CEE/EAS/MAE 6755
Finite Element Method: Theory and Applications in Mechanics and Multiphysics
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CHEME 6440
Aerosols and Colloids
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CHEME 6780
Global Food, Energy, and Water Nexus
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EAS 5010
Fundamentals of Energy and Mineral Resources
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EAS 5052
Climate Dynamics
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EAS 5720
Fundamentals of Glaciology
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EAS 5850
Global Geophysics
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EAS 5870
Introduction to Radar Remote Sensing
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EAS 6370
Field Geophysics
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EAS 6540
Ocean Satellite Remote Sensing
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EAS 6710
Introduction to Groundwater
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EAS 6800
Atmospheric Chemistry: From Air Pollution to Global Change
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EAS 6820
Seismology
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EAS 6920
Energy geomechanics and rock mechanics
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MAE 5010
Future energy systems
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MAE 5230
Intermediate fluid dynamics with CFD
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MSE 5810
Materials Chemistry