Research
Seismic Anisotropy in Continental Regions
1.1 Alaska
Seismic anisotropy provides valuable insights into crustal deformation processes. In Alaska, seismic observations reveal patterns of anisotropy that help characterize lithospheric deformation and geodynamic evolution. PDF
1.2 Anatolian Plate
The Anatolian Plate is a tectonically active region bounded by the North Anatolian Fault and East Anatolian Fault, caught between the converging Eurasian and Arabian plates. Seismic anisotropy observations reveal depth-dependent deformation patterns, with crustal anisotropy correlating with surface strain rates and receiver function anisotropy, while asthenospheric anisotropy shows distinct patterns related to mantle flow beneath the escaping Anatolian block. PDF
Seismic Anisotropy at Oceanic Plates and Subduction Zones
2.1 Aleutian Subduction Zone
Seismic anisotropy in the Aleutian subduction zone sheds light on mantle flow and slab dynamics. The complex interactions between the subducting slab and the overriding lithosphere influence anisotropic signatures observed in seismic data. PDF
2.2 The Juan de Fuca-Gorda Plates
The Juan de Fuca and Gorda plates are characterized by significant seismic anisotropy due to plate bending, hydration, and subduction processes. Understanding these anisotropic patterns helps constrain the stress and deformation history of oceanic plates. PDF
New Methods for Seismic Imaging
3.1 Three-Station Ambient Noise Interferometry in Alaska/Aleutian
Three-station ambient noise interferometry is a powerful technique to extract surface wave dispersion and improve seismic anisotropy imaging. This method enhances resolution in remote regions like Alaska and the Aleutian subduction zone. PDF
3.2 Direct Inversion for Azimuthal Anisotropy
Direct inversion techniques allow for a more accurate estimation of azimuthal anisotropy from surface wave dispersion. These methods contribute to refining models of upper mantle flow and deformation patterns. PDF GitHub
Read more in my Publications.