Dynamic Rupture Modeling

Dynamic Rupture Modeling is a computational physics-based framework that simulates the propagation of earthquake ruptures along faults by solving the elastodynamic equations of motion coupled with nonlinear failure criteria, distinguishing it from static or kinematic source models through its explicit representation of stress, strain, and frictional processes during seismic energy release and wave generation.

346

Publications

19.2K

Citations

641

Authors

264

Institutions

Publications per year

2017–2026

122

Authors

641

  1. AG
    Alice‐Agnes Gabriel

    Ludwig-Maximilians-Universität München, Germany

    27 publications · 2.1K citations

    23

    h-index

  2. JA
    Jean‐Paul Ampuero

    California Institute of Technology, United States

    25 publications · 2.2K citations

    19

    h-index

  3. LA
    L. A. Dalguer

    ETH Zurich, Switzerland

    19 publications · 1.2K citations

    16

    h-index

  4. ZZ
    Zhenguo Zhang

    Southern University of Science and Technology, China

    14 publications · 696 citations

    14

    h-index

  5. XC
    Xiaofei Chen

    Southern University of Science and Technology, China

    14 publications · 659 citations

    14

    h-index

1–5 of 641

Venues

  1. Bulletin of the Seismological Society of America

    BSSA · 54 publications · 3.4K citations

    30

    h-index

  2. Journal of Geophysical Research Atmospheres

    JGR · 33 publications · 3.7K citations

    29

    h-index

  3. Journal of Geophysical Research Solid Earth

    34 publications · 1.9K citations

    26

    h-index

  4. Geophysical Research Letters

    50 publications · 2.1K citations

    26

    h-index

  5. Geophysical Journal International

    GJI · 36 publications · 1.8K citations

    24

    h-index

1–5