© 2016, Springer-Verlag Berlin Heidelberg. We determine a q→ 1 limit of the two-dimensional q-Whittaker driven particle system on the torus studied previously in Corwin and Toninelli (Electron. Commun. Probab. 21(44):1–12, 2016). This has an interpretation as a (2 + 1)-dimensional stochastic interface growth model, which is believed to belong to the so-called anisotropic Kardar–Parisi–Zhang (KPZ) class. This limit falls into a general class of two-dimensional systems of driven linear SDEs which have stationary measures on gradients. Taking the number of particles to infinity we demonstrate Gaussian free field type fluctuations for the stationary measure. Considering the temporal evolution of the stationary measure, we determine that along c...
We introduce what we call the second-order Boltzmann–Gibbs principle, which allows one to replace lo...
International audienceWe consider driven dimer models on the square and honeycomb graphs, starting f...
Abstract. We compute the one-point probability distribution for the stationary KPZ equa-tion (i.e. i...
Abstract We consider a discrete model for anisotropic (2 + 1)-dimensional growth of an interface hei...
In [5] we studied an interacting particle system which can be also interpreted as a stochastic growt...
We consider the KPZ equation in space dimension 2 driven by space-time white noise. We showed in pre...
We construct a family of stochastic growth models in $2+1$ dimensions, that belong to the anisotropi...
We construct a family of stochastic growth models in 2+1 dimen-sions, that belong to the anisotropic...
We construct a family of stochastic growth models in $2+1$ dimensions, that belong to the anisotropi...
We consider the weakly asymmetric exclusion process on the one dimensional lattice. It has been prov...
38 pages, 6 figuresInternational audienceWe study a $(2+1)$-dimensional stochastic interface growth ...
We construct a family of stochastic growth models in $2+1$ dimensions, that belong to the anisotropi...
36 pages, 8 figures. Comments welcomeInternational audienceStochastic growth processes in dimension ...
We introduce what we call the second-order Boltzmann-Gibbs principle, which allows to replace local ...
We consider three models of evolving interfaces intimately related to the weakly asymmetric simple e...
We introduce what we call the second-order Boltzmann–Gibbs principle, which allows one to replace lo...
International audienceWe consider driven dimer models on the square and honeycomb graphs, starting f...
Abstract. We compute the one-point probability distribution for the stationary KPZ equa-tion (i.e. i...
Abstract We consider a discrete model for anisotropic (2 + 1)-dimensional growth of an interface hei...
In [5] we studied an interacting particle system which can be also interpreted as a stochastic growt...
We consider the KPZ equation in space dimension 2 driven by space-time white noise. We showed in pre...
We construct a family of stochastic growth models in $2+1$ dimensions, that belong to the anisotropi...
We construct a family of stochastic growth models in 2+1 dimen-sions, that belong to the anisotropic...
We construct a family of stochastic growth models in $2+1$ dimensions, that belong to the anisotropi...
We consider the weakly asymmetric exclusion process on the one dimensional lattice. It has been prov...
38 pages, 6 figuresInternational audienceWe study a $(2+1)$-dimensional stochastic interface growth ...
We construct a family of stochastic growth models in $2+1$ dimensions, that belong to the anisotropi...
36 pages, 8 figures. Comments welcomeInternational audienceStochastic growth processes in dimension ...
We introduce what we call the second-order Boltzmann-Gibbs principle, which allows to replace local ...
We consider three models of evolving interfaces intimately related to the weakly asymmetric simple e...
We introduce what we call the second-order Boltzmann–Gibbs principle, which allows one to replace lo...
International audienceWe consider driven dimer models on the square and honeycomb graphs, starting f...
Abstract. We compute the one-point probability distribution for the stationary KPZ equa-tion (i.e. i...