Dave May

Associate Professor

University of California San Diego Scripps Institution of Oceanography

United States

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Dave May is an Associate Professor at the Scripps Institution of Oceanography, University of California San Diego, United States. His research encompasses dynamic rupture, earthquake dynamics, and geodynamic modeling, as evidenced by his recent articles. His work includes examining the interplay between magmatism and tectonics, and he employs advanced modeling techniques to enhance the understanding of complex geological processes.

Dave May

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Articles (16)

Syn‐Rift Magmatism and Oceanic Spreading Initiation Controlled by Rift Obliquity: Insights From 3D Coupled Thermo‐Mechanical and Surface Processes Modeling

Inefficient Melt Transport Across a Weakened Lithosphere Led to Anomalous Rift Architecture in the Turkana Depression

Coupling 3D Geodynamics and Dynamic Rupture: Rheology and Stress Control on Strike‐Slip Fault Evolution and Earthquake Dynamics

3D Reconstruction of Complex Fault Systems From Volumetric Geodynamic Shear Zones Using Medial Axis Transform

Dual Mechanism Transition Controls Rupture Development of Large Deep Earthquakes

Sensitivity Analysis of the Thermal Structure Within Subduction Zones Using Reduced‐Order Modeling

Reduced-order modelling for complex three-dimensional seismic wave propagation

Instantaneous Physics‐Based Ground Motion Maps Using Reduced‐Order Modeling

Contrasting transform and passive margin subsidence history and heat flow evolution: insights from 3D thermo-mechanical modelling

A Diffuse Interface Method for Earthquake Rupture Dynamics Based on a Phase‐Field Model

Rate and State Friction as a Spatially Regularized Transient Viscous Flow Law

Evolution of Rift Architecture and Fault Linkage During Continental Rifting: Investigating the Effects of Tectonics and Surface Processes Using Lithosphere‐Scale 3D Coupled Numerical Models

DMStag: Staggered, Structured Grids for PETSc

An efficient partial-differential-equation-based method to compute pressure boundary conditions in regional geodynamic models

A discontinuous Galerkin method for sequences of earthquakes and aseismic slip on multiple faults using unstructured curvilinear grids

Seismic Source Tracking With Six Degree‐of‐Freedom Ground Motion Observations

Collaborators (9)

laetitia le pourhiet

Alice-Agnes Gabriel

Ritske S. Huismans

Delphine Rouby

Wenyuan Fan

László Fodor

Richard Katz

Yuan Li

Boris Kaus

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