Depinning with dynamic stress overshoots: Mean field theory
J. M. Schwarz, Daniel S. Fisher
Abstract
An infinite-range model of an elastic manifold pulled through a random potential by an applied force F is analyzed focusing on inertial effects. When the inertial parameter, M, is small, there is a continuous depinning transition from a small-F static phase to a large-F moving phase. When M is increased to Mc, a novel tricritical point occurs. For M\!>\!Mc, the depinning transition becomes discontinuous with hysteresis. Yet, the distribution of discrete ``avalanche''-like events as the force is increased in the static phase for M\!>\!Mc has an unusual mixture of first-order-like and critical features.
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