Academic Personnel Scientists & Academic Federation
Ph.D., GFZ German Research Centre for Geosciences/University of Potsdam (2016)
2209A Earth & Physical Sci
email@example.com | 530-752-1402
Computational Infrastructure for Geodynamics (CIG), Geophysics
Dr. Dannberg’s main research topics are in computational geodynamics, in particular mantle convection and magma/mantle dynamics. Her main focus is on the development of numerical models of the Earth's interior that can help us understand how the Earth's surface has developed. In particular, Juliane is interested in the investigation of mantle plumes. Additional work includes other two-phase flow problems in magma dynamics, and grain size evolution in the Earth's mantle and its influence on rheology. Juliane is one of the maintainers of the free modeling software ASPECT (Advanced Solver for Problems in Earth's Convection) which uses modern numerical methods to support research in simulating convection in the Earth's mantle and elsewhere.
High-resolution records of climate change from ocean and lake environments as determined by palynological analyses. Reconstruction of vegetational history of late-glacial environment and its paleoclimatic implications. Evidence for the response of plant communities to climatic oscillations and analysis of environmental parameters responsible for vegetational alteration. Current research projects encompass California and the Caribbean region, including the palynological study of vegetation evolution and optimal conditions for the formation of peat in the Sacramento-San Joaquin Delta and marine sediments of the Cariaco Basin of Caribbean Sea as a source of information for paleoclimate reconstruction in a Neotropical region during late-glacial/Holocene transition.
Modelling of three-dimensional seismic velocity structure and material properties; and seismotectonic analysis of active deformation. Motivated to integrate 3-D velocity and attenuation models with other geophysics and to use 3-D velocity models to understand the effects of heterogeneous material properties, to extend beyond simply interpreting crustal structure. Current research efforts have focused on New Zealand and Alaska, with emphasis on understanding subduction processes and the transition from subduction to collision. Recent work with imaging 3D attenuation structure is valuable for interpreting tectonic processes that involve fluids, and also has application to engineering response spectra.
Assistant Project Scientist
Ph.D., GFZ German Research Centre for Geosciences/University of Potsdam (2015)
1227 Mathematical Sciences
firstname.lastname@example.org | 530-752-0547;
Computational Infrastructure for Geodynamics (CIG), Geophysics
As a computational geodynamicist, Dr. Gassmoeller is interested in all kinds of progress in sustainable scientific software development in geodynamics, including: 1. Investigating what influence approximations in equations have on results. Do we need to utilize upcoming larger and more heterogeneous computer architectures?; 2. Extending our modelling capabilities to systems previously thought to be too complex or expensive to investigate; 3. Maintaining community software projects that are both state of the art and easy to learn, to make geodynamic modeling a tool that is as useful and accessible as possible. This includes providing technical support to other users, helping to create a welcoming and supporting community, and spreading best practices to as many projects as possible.
Academic Coordinator for CIG
Ph.D., California Institute of Technology (1990)
2215 Earth & Physical Sci
email@example.com | 530-752-3656
Computational Infrastructure for Geodynamics (CIG)
Seismology, geologic carbon sequestration and induced seismicity.
Associate Research Computer Scientist
Ph.D., UC Davis (2003)
2306 Academic Surge
firstname.lastname@example.org | 530-754-5655
Scientific visualization, computer graphics, virtual reality, human-computer interaction. Dr. Kreylos' research focuses on the development of techniques to apply virtual reality display systems and human-computer interaction devices such as the KeckCAVES to scientific research, primarily in the Earth and physical sciences. Concretely, this involves development of visualization software to create three-dimensional renderings of scientific data, development of interaction techniques to extract observations and quantitative derived data from these data, and development of support software to drive novel display and user interface hardware. http://idav.ucdavis.edu/~okreylos
Dr. Naliboff's research focuses on determining the relative influence of plate driving forces and lithospheric rheology on tectonic deformation patterns over a wide range of spatial and temporal scales. To investigate the origins of observed deformation patterns, he uses forward modeling of lithospheric and mantle convection processes to constrain existing or newly obtained structural and geophysical observations. Active projects include investigations of the global lithospheric stress field, outer rise deformation in the Tonga subduction system and continental extension in the North Atlantic and Gulf of California. John is also beginning projects associated with the development and testing of long-term tectonics software capable of simulating high-resolution, 3-D lithospheric deformation processes.
Paleoceanography and chemical oceanography. Dr. Russell's research focuses on development and application of geochemical tracers of changes in ocean chemistry, including metals and stable isotopes in foraminiferal shells, and redox-sensitive metals in bulk sediments. Ann uses these geochemical tracers to reconstruct changes in ocean temperature, carbon chemistry, and redox environment from deep-sea sediment cores.
Sanborn’s research focuses on understanding the evolution of planetary objects (asteroids and small planetesimals) in the early Solar System. Understanding their evolution includes attempting to decipher melting and differentiation histories and the associated timescales. Sanborn utilizes variations in stable isotope compositions as a forensic tool to establish links between different meteorite types to place them in them in a broader context of formation on their parent asteroid or parent body. The timescales of their formation are determined using various short-lived radionuclides (⁵³Mn and ²⁶Al) to provide million to sub-million year precision on their formation ages over 4.56 billion years ago. http://matthewsanborn.net | Google Scholar publication
Planetary formation and evolution. Dr. Spaulding conducts shock compression experiments on light gas gun platforms to investigate material properties at high pressures and temperatures. In the laboratory, Dylan investigates how materials change under extreme conditions, including the aftermath of large impact events and in the deep interiors of planets. This may include measuring equations of state, phase relations, pressure-induced chemistry and shock-induced changes in samples, all of which seek to constrain the question of how to make a habitable planet.
Igneous petrology of gabbros and basalts. Detailed petrographic, mineralogical and chemical studies to understand petrogenesis and crystallization. Current research includes gabbroic intrusions and plateau basalts of the North Atlantic province (Skaergaard intrusion, East Greenland, Iceland). Ocean gabbros and crustal formation (Indian Ocean). Ophiolites (Cyprus and Turkey). Formation of ash and slag in biomass-fueled power plants.
Structural geology, tectonics, geodynamics, and geoinformatics. Primary collaborator on the Augmented Reality Sandbox project. Currently working with informal science education centers on an NSF funded project to improve STEM (Science Technology Engineering Math) education by providing 3D visualizations of the major lakes and reservoirs of the world to enhance public awareness and increase understanding and stewardship of freshwater lake ecosystems, habitats, and earth science processes.