Emily Brodsky

Professor

University of California, Santa Cruz

United States

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Emily Brodsky is a Professor at the University of California, Santa Cruz, USA. Her research focuses on the dynamics of earthquakes, including their predictability, healing behaviors, and the effects of small quakes on larger tectonic events. Recent publications examine topics such as the influence of fault geometry on rupture length and the temporal changes in triggering intensity related to seismic activity.

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Collaborators (6)

Masatoshi Miyazawa

Associate Professor

Disaster Prevention Research Institute, Kyoto University

JAPAN

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Thorne Lay

University of California, Santa Cruz

UNITED STATES

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Zack Spica

Assistant Professor

University of Michigan

UNITED STATES

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Patrick Fulton

Cornell University

UNITED STATES

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Lars Hansen

Stanford University

UNITED STATES

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Thomas H.W. Goebel

Assistant Professor

University of Memphis

UNITED STATES

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Emily Brodsky

Research Interests

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About

Articles (20)

Triggering Intensity Changes Over Time and Space as Measured by Continuous Waveforms in Southern California

Earthquakes in the blind spot

To Heal or Not to Heal?: 2. The Moment–Recurrence Time Behavior of Repeating Earthquakes in the 2011 Prague, Oklahoma Aftershock Sequence Is Consistent With Laboratory Healing Rates

Under what circumstances is the final size of a laboratory earthquake predictable at the onset of the P-wave?

Competition between roughness and strength for scale-dependent surfaces

The Big Impact of Small Quakes on Tectonic Tremor Synchronization

Precursory Locking Precedes Slip Events on Laboratory Fault

Granular Temperature Controls Local Rheology of Vibrated Granular Flows

The Influence of Fault Geometrical Complexity on Surface Rupture Length

Microseismicity at the Time of a Large Creep Event on the Calaveras Fault is Unresponsive to Stress Changes

Fault Roughness Promotes Earthquake‐Like Aftershock Clustering in the Lab

Regional Characteristics of Observable Foreshocks

A Microphysical Model of Rock Friction and the Brittle‐Ductile Transition Controlled by Dislocation Glide and Backstress Evolution

Earthquakes Record Cycles of Opening and Closing in the Enhanced Seismic Catalog of the 2008 Okmok Volcano, Alaska, Eruption

A Specific Earthquake Processing Workflow for Studying Long‐Lived, Explosive Volcanic Eruptions With Application to the 2008 Okmok Volcano, Alaska, Eruption

Using Deep Learning for Flexible and Scalable Earthquake Forecasting

Global Characteristics of Observable Foreshocks for Large Earthquakes

Seismological Stress Drops for Confined Ruptures Are Invariant to Normal Stress

Determining hydraulic diffusivity from ambient noise in subsurface flow rate and temperature data

Frictional Weakening of Vibrated Granular Flows

Collaborators (6)

Masatoshi Miyazawa

Thorne Lay

Zack Spica

Patrick Fulton

Lars Hansen

Thomas H.W. Goebel

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