I am a geoscientist with a strong interest in the physics of multiphase flow in porous media.
My research focuses on advancing our fundamental understanding and predictive capabilities of the simultaneous flow of two or more fluids through rocks, soils and other porous materials.
Research in my group combines theory, simulation and experiments that elucidate fundamental aspects of multi-fluid flow, which we then apply for prediction of large-scale Earth science problems in the areas of energy and the environment, including geological carbon sequestration, methane hydrates, and ecohydrology of arid environments.
Loosely speaking, our research areas are:
Methane: methane hydrates in nature; methane venting from freshwater sediments
CO2: Geological carbon sequestration; capillary and solubility trapping; geomechanics
Oil: Enhanced oil recovery; flow instabilities; mixing; flow through fractured media
Water: Water infiltration; gravity fingering; ecohydrology of arid environments
I teach courses in computer programming (undergraduate), soil mechanics (undergraduate), groundwater hydrology (graduate) and computational methods for flow in porous media (advanced graduate). My current teaching schedule is:
1.723: Computational Methods for Flow in Porous Media (stellar website)
1.000: Computer Programming for Scientific and Engineering Applications (stellar website)
Courses at other institutions
PGE383: Computational Geomechanics (UT Austin)
PE120: Fundamentals of Petroleum Engineering (Stanford)
PE224: Advanced Topics in Reservoir Simulation (Stanford)
PE260: Environmental Aspects of Petroleum Engineering (Stanford)
PE281: Applied Mathematics in Reservoir Engineering (Stanford)
E77: Introduction to Computer Programming for Scientists and Engineers (UC Berkeley)
CE100: Elementary Fluid Mechanics (UC Berkeley)