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Probing the Damage Zone at Parkfield

Rocks are heterogeneous materials that exhibit nonlinear elastic (anelastic) behavior at scales ranging from the laboratory to Earth. In the laboratory, typical, complex relationships exist between stress and strain that include hysteresis, finite relaxation times, strain rate, and history dependenc...

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Published in:Geophysical research letters 2021-07, Vol.48 (13)
Main Authors: Delorey, Andrew A., Guyer, Robert A., Bokelmann, Götz R., Johnson, Paul A.
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Language:English
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Guyer, Robert A.
Bokelmann, Götz R.
Johnson, Paul A.
description Rocks are heterogeneous materials that exhibit nonlinear elastic (anelastic) behavior at scales ranging from the laboratory to Earth. In the laboratory, typical, complex relationships exist between stress and strain that include hysteresis, finite relaxation times, strain rate, and history dependence. These behaviors are linked to important characteristics such as stress, porosity, permeability, material integrity, and material failure. In this work, we adopted a “pump-probe” type experiment common in laboratory studies, using solid earth tides as the low-frequency pump and empirical Green's function as the high-frequency probe. By probing the velocity at different points in the pump cycle, we constrained important information about the strain-modulus relationship. Near the San Andreas Fault, we observed strongly nonlinear elastic behavior that characterizes the damage zone. We also constrained important aspects of hysteretic behavior that are related to damage properties and possibly pore pressure. Away from the fault, the nonlinear behavior is diminished.
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ispartof Geophysical research letters, 2021-07, Vol.48 (13)
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source Wiley-Blackwell AGU Digital Archive
subjects Earth sciences
empirical Green's functions
fault damage zone
GEOSCIENCES
hysteresis
nonlinear elasticity
San Andreas Fault
solid earth tides
title Probing the Damage Zone at Parkfield
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