We introduce a model for the slow relaxation of an energy landscape caused by its local interaction with a random walker whose motion is dictated by the landscape itself. By choosing relevant measures of time and potential this self-quenched dynamics can be mapped on to the "True"Self-Avoiding Walk model. This correspondence reveals that the average distance of the walker at time t from its starting point is $R(t) \sim {\log(t)}^{\gamma}$, where $\gamma=2/3$ for one dimension and 1/2 for all higher dimensions. Furthermore, the evolution of the landscape is similar to that in growth models with extremal dynamics
We consider a self-attracting random walk in dimension d = 1, in the presence of a field of strengt...
It is well-known that the continuum limit of a random walk on a lattice is Brownian motion. Similarl...
Random walks on self-avoiding walks (SAWs) are studied using Monte Carlo techniques on a square latt...
Although the title seems self-contradictory, it does not contain a misprint. The model we study is a...
Consider N sites randomly and uniformly distributed in a d-dimensional hypercube. A walker explores ...
International audienceSelf-interacting random walks are endowed with long range memory effects that ...
A new master equation to mimic the dynamics of a collection of interacting random walkers in an open...
We propose a novel one-dimensional simple model without disorder exhibiting slow dynamics and aging ...
We consider lattice self-avoiding walks and discuss the dynamic critical behavior of two dynamics th...
We introduce a diffusion model for energetically inhomogeneous systems. A random walker moves on a s...
Abstract. We present a brief survey of results concerning self-interacting ran-dom walks and self-re...
A new master equation to mimic the dynamics of a collection of interacting random walkers in an open...
We derive a perturbation expansion for general self-interacting random walks, where steps are made o...
PACS. 05.65+b – Self-organised systems. PACS. 05.45-a – Nonlinear dynamics and nonlinear dynamical s...
We demonstrate the phenomenon of self-organized criticality (SOC) in a simple random walk model desc...
We consider a self-attracting random walk in dimension d = 1, in the presence of a field of strengt...
It is well-known that the continuum limit of a random walk on a lattice is Brownian motion. Similarl...
Random walks on self-avoiding walks (SAWs) are studied using Monte Carlo techniques on a square latt...
Although the title seems self-contradictory, it does not contain a misprint. The model we study is a...
Consider N sites randomly and uniformly distributed in a d-dimensional hypercube. A walker explores ...
International audienceSelf-interacting random walks are endowed with long range memory effects that ...
A new master equation to mimic the dynamics of a collection of interacting random walkers in an open...
We propose a novel one-dimensional simple model without disorder exhibiting slow dynamics and aging ...
We consider lattice self-avoiding walks and discuss the dynamic critical behavior of two dynamics th...
We introduce a diffusion model for energetically inhomogeneous systems. A random walker moves on a s...
Abstract. We present a brief survey of results concerning self-interacting ran-dom walks and self-re...
A new master equation to mimic the dynamics of a collection of interacting random walkers in an open...
We derive a perturbation expansion for general self-interacting random walks, where steps are made o...
PACS. 05.65+b – Self-organised systems. PACS. 05.45-a – Nonlinear dynamics and nonlinear dynamical s...
We demonstrate the phenomenon of self-organized criticality (SOC) in a simple random walk model desc...
We consider a self-attracting random walk in dimension d = 1, in the presence of a field of strengt...
It is well-known that the continuum limit of a random walk on a lattice is Brownian motion. Similarl...
Random walks on self-avoiding walks (SAWs) are studied using Monte Carlo techniques on a square latt...