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Frictional behavior of synthetic gouge-bearing faults under the operation of pressure solution

Abstract

Two recent experimental studies on the frictional behavior of synthetic gouge-bearing faults under the operation of pressure solution are compared. One is triaxial shear experiments on quartz gouge at high pressure-temperature hydrothermal conditions (Kanagawa et al., 2000), and the other is rotary shear experiments on halite gouge at atmospheric pressure and room temperature in the presence of methanol-water mixtures (Bos et al., 2000). In spite of quite different experimental settings and conditions, the results of these two series of experiments are strikingly similar; both cataclasis and pressure solution being active during the experiments, gouge strength rate-controlled by cataclasis, two different frictional behaviors of slip hardening and softening, slip hardening associated with gouge compaction, distributed deformation and wall-rock failure, slip softening associated with localized slip along the gouge-wall-rock interface, and the transition from slip-hardening to slip-softening behavior according to decreasing rate of pressure solution. Although there is a difference in velocity dependence of strength between quartz and halite gouges, these similarities clearly demonstrate the important effects of pressure solution on the frictional behavior of gouge-bearing faults.

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Correspondence to Kyuichi Kanagawa.

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Kanagawa, K. Frictional behavior of synthetic gouge-bearing faults under the operation of pressure solution. Earth Planet Sp 54, 1147–1152 (2002). https://doi.org/10.1186/BF03353316

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Keywords

  • Halite
  • Slip Surface
  • Pressure Solution
  • Frictional Behavior
  • Stick Slip