RESEARCH OVERVIEW

My research is multi-disciplinary, collaborative, and societally-relevant. I seek to understand connections between the deformation of the Earth and natural resources (e.g., precious metals, water, biodiversity, fossil fuels) and geologic hazards (earthquakes, landslides, floods).

My expertise is in structural geology and tectonics, and I collaborate with researchers across disciplines. I employ a variety of techniques including:

  1. Compilation of geological, geophysical, and geochemical datasets into a 3D-structural framework

  2. Palinspastic reconstructions at the regional to plate-scale

  3. Kinematic and thermo-kinematic numerical modeling

  4. Field- and microstructural studies of brittle-ductile fault rocks

  5. Geo- and thermo-chronology


High-resolution, basin-scale 3D structural modeling using ca. 20,000 subsurface datapoints and surface geologic constraints: project link


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GPLATES used to model intraplate deformation


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Fault mechanics

Field photos of co-seismic cataclasites formed along a low-angle normal fault.



3D structural modeling from diverse datasets

project link here


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Thermo-kinematic modeling


thermo-kinematic modeling cooling histories

thermo-kinematic modeling cooling histories


Details digital geologic mapping from high-resolution LIDAR : project link

Drainage fragmentation and endemic species evolution


Observational & analytical methods:

Modeling:



Crustal-scale 3D structural modeling of fault systems using multidisciplinary datasets (e.g., surface mapping, seismic lines, earthquake hypocenters, focal mechanisms, gravity inversions)


Please contact me if you’re interested in a collaboration. You can e-mail me or use the form below