Thomas H.W. Goebel

Assistant Professor

University of Memphis

United States

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Thomas H.W. Goebel is an Assistant Professor at the University of Memphis, USA. His research focuses on understanding seismic phenomena, with recent articles exploring topics such as induced seismicity, earthquake precursors, and laboratory fault dynamics. He employs machine learning techniques to enhance earthquake prediction and investigates the impact of fault roughness on seismic activity.

Articles (16)

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2024

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2024

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2021

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2020

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2020

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2020

Collaborators (6)

Jordi Baró Urbea

professor lector Serra Húnter

University of Barcelona

SPAIN

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Thorne Lay

University of California, Santa Cruz

UNITED STATES

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Peter M. Shearer

University of California

UNITED STATES

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Emily Brodsky

Professor

University of California, Santa Cruz

UNITED STATES

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Yehuda Ben‐Zion

UNITED STATES

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Christine Ruhl

Assistant Professor

University of Tulsa

UNITED STATES

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Thomas H.W. Goebel

Research Interests

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Articles (16)

Intermittent Criticality Multi‐Scale Processes Leading to Large Slip Events on Rough Laboratory Faults

Magnitude Clustering During Stick‐Slip Dynamics on Laboratory Faults

Induced seismicity and surface deformation associated with long-term and abrupt geothermal operations in Blue Mountain, Nevada

A laboratory perspective on accelerating preparatory processes before earthquakes and implications for foreshock detectability

Fault Roughness Promotes Earthquake‐Like Aftershock Clustering in the Lab

Regional Characteristics of Observable Foreshocks

Explainable machine learning for labquake prediction using catalog-driven features

Large-scale heterogeneities can alter the characteristics of compressive failure and accelerated seismic release

Inferring Hydrological Properties of the Rainfall-Runoff Conversion Process through Artificial Neural Network Modeling

Does Earthquake Stress Drop Increase With Depth in the Crust?

What Controls the Presence and Characteristics of Aftershocks in Rock Fracture in the Lab?

Measuring Fault Zone and Host Rock Hydraulic Properties Using Tidal Responses

More Than 40 yr of Potentially Induced Seismicity Close to the San Andreas Fault in San Ardo, Central California

Seismic and Aseismic Preparatory Processes Before Large Stick–Slip Failure

Stress drop–magnitude dependence of acoustic emissions during laboratory stick-slip

Experimental and modeling study of the effect of fault roughness on dynamic frictional sliding

Collaborators (6)

Jordi Baró Urbea

Thorne Lay

Peter M. Shearer

Emily Brodsky

Yehuda Ben‐Zion

Christine Ruhl

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