Death and resurrection of a current by disorder, interaction or activity
arXiv:1804.06780 · doi:10.1007/s10955-018-2123-9
Abstract
Because of disorder the current-field characteristic may show a first order phase transition as function of the field, at which the current jumps to zero when the driving exceeds a threshold. The discontinuity is caused by adding a finite correlation length in the disorder. At the same time the current may resurrect when the field is modulated in time, also discontinuously: a little shaking enables the current to jump up. Finally, in trapping models exclusion between particles postpones or even avoids the current from dying, while attraction may enhance it. We present simple models that illustrate those dynamical phase transitions in detail, and that allow full mathematical control.
arXiv comment22 pages
References in corpus (17)
- Nonequilibrium Statistical Mechanics of the Zero-Range Process and Related Models
- First-order dynamical phase transition in models of glasses: an approach based on ensembles of histories
- Comb-like models for transport along spiny dendrites
- Getting More from Pushing Less: Negative Specific Heat and Conductivity in Non-equilibrium Steady States
- Space-time thermodynamics and subsystem observables in a kinetically constrained model of glassy systems
- Microscopic theory for negative differential mobility in crowded environments
- Shaken and stirred: Random organization reduces viscosity and dissipation in granular suspensions
- Role of interactions in a dissipative many-body localized system
- Nonlinear Response in the Driven Lattice Lorentz Gas
- Avalanches and Correlations in Driven Interface Depinning
- The frenetic origin of negative differential response
- Generic Dynamical Phase Transition in One-Dimensional Bulk-Driven Lattice Gases with Exclusion
- Dynamical phase transitions in the current distribution of driven diffusive channels
- Negative mobility of a Brownian particle: strong damping regime
- Strong Mobility in Weakly Disordered Systems
- On the Ornstein-Zernike behaviour for the Bernoulli bond percolation on in the supercitical regime
- Activity induced first order transition for the current in a disordered medium
Cited by in corpus (3)
- Trees and forests for nonequilibrium purposes: an introduction to graphical representations
- Biased random walk on random networks in presence of stochastic resetting: Exact results
- Bias induced drift and trapping on random combs and the Bethe lattice: Fluctuation regime and first order phase transitions