Susan S. Hubbard is the Associate Lab Director of the Earth Sciences Division at Lawrence Berkeley National Laboratory. She is a Senior Scientist, leads the Sustainable Systems SFA, and co-leads NGEE-Arctic and other team projects. She received her BA in geology, her MS in geophysics, and her PhD in Engineering (UC Berkeley, 1998). She has previously worked at the US Geological Survey and for the Petroleum Industry. Susan was awarded the Frank Frischknecht Leadership Award by the Near-Surface Geophysical Community in 2009, was the Geological Society of America’s Birdsall Dreiss Distinguished Lecturer in 2010, was selected as a Geological Society of America Fellow in 2011, and was inducted into the University of California Department of Civil and Environmental Engineering Distinguished Alumni Academy in 2014. Susan sits on several advisory boards and has served on many editoral boards, including Water Resources Research, JGR-Biosciences, Vadose Zone Journal and Journal of Hydrology.
Susan’s research focuses on advancing the use of geophysical methods for shallow subsurface characterization and monitoring and the use of integrated datasets to investigate environmental problems. She edited the first book on hydrogeophysics, and has published over 100 papers on this topic. Susan Hubbard’s research can be generally categorized into the following five areas:
- Hydrogeophysical research has focused on the development and testing of estimation methodologies that permit systematic fusion of geophysical and hydrogeological datasets for improved understanding of subsurface hydrogeological properties.
- Biogeophysical and Remediation Monitoring research includes the development and testing of petrophysical models and estimation frameworks that permit the interpretation of time-lapse geophysical signatures in terms of remediation-induced biogeochemical transformations.
- Permafrost Geophysics research focuses on characterizing active layer and permafrost variability in vulnerable Arctic ecosystems and on monitoring biogeochemical changes associated with freeze-thaw processes and carbon degradation.
- Precision Viticulture research focuses on integrating remote sensing and ground-based geophysical datasets with soil, plant, and climate-based information to guide the optimal development of new or management of existing vineyards in a manner that honors the natural variability of the site.
- Environmental Synthesis activities include those that strive to advance research across disciplinary boundaries and scales as needed to tackle 21st Century natural resource problems.