We consider a system of annihilating particles where particles start from the points of a Poisson process on the line, move at constant i.i.d. speeds symmetrically distributed in {-1,0,+1} and annihilate upon collision. We prove that particles with speed 0 vanish almost surely if and only if their initial density is smaller than or equal to 1/4, and give an explicit formula for the probability of survival of a stationary particle, which is in accordance with the predictions of [Droz et al. 1995]. The present proof relies essentially on an identity proved in a recent paper by J. Haslegrave
International audienceWe consider the spatially homogeneous Boltzmann equation for ballistic annihil...
International audienceWe consider the spatially homogeneous Boltzmann equation for ballistic annihil...
International audienceWe consider the spatially homogeneous Boltzmann equation for ballistic annihil...
We consider ballistic annihilation, a model for chemical reactions first introduced in the 1980’s ph...
We consider ballistic annihilation, a model for chemical reactions first introduced in the 1980's ph...
In this article, we review the problem of reaction annihilation $$A+A \rightarrow \emptyset $$ on a ...
A system of particles is studied in which the stochastic processes are one-particle type-change (or ...
The problem of ballistic annihilation for a spatially homogeneous system is revisited within Boltzma...
Ballistic-annihilation kinetics for a multivelocity one-dimensional ideal gas is studied in the fram...
We calculate the survival probability of a diffusing test particle in an environment of diffusing pa...
In ballistic annihilation, infinitely many particles with randomly assigned velocities move across t...
A system of particles is studied in which the stochastic processes are one-particle type-change (or ...
Abstract: The reaction process A + B → ∅ is modelled for ballistic reactants on an infinite line wi...
We consider ballistic annihilation, a model for chemical reactions first introduced in the 1980’s ph...
We consider the spatially homogeneous Boltzmann equation for ballistic annihilation in dimension d \...
International audienceWe consider the spatially homogeneous Boltzmann equation for ballistic annihil...
International audienceWe consider the spatially homogeneous Boltzmann equation for ballistic annihil...
International audienceWe consider the spatially homogeneous Boltzmann equation for ballistic annihil...
We consider ballistic annihilation, a model for chemical reactions first introduced in the 1980’s ph...
We consider ballistic annihilation, a model for chemical reactions first introduced in the 1980's ph...
In this article, we review the problem of reaction annihilation $$A+A \rightarrow \emptyset $$ on a ...
A system of particles is studied in which the stochastic processes are one-particle type-change (or ...
The problem of ballistic annihilation for a spatially homogeneous system is revisited within Boltzma...
Ballistic-annihilation kinetics for a multivelocity one-dimensional ideal gas is studied in the fram...
We calculate the survival probability of a diffusing test particle in an environment of diffusing pa...
In ballistic annihilation, infinitely many particles with randomly assigned velocities move across t...
A system of particles is studied in which the stochastic processes are one-particle type-change (or ...
Abstract: The reaction process A + B → ∅ is modelled for ballistic reactants on an infinite line wi...
We consider ballistic annihilation, a model for chemical reactions first introduced in the 1980’s ph...
We consider the spatially homogeneous Boltzmann equation for ballistic annihilation in dimension d \...
International audienceWe consider the spatially homogeneous Boltzmann equation for ballistic annihil...
International audienceWe consider the spatially homogeneous Boltzmann equation for ballistic annihil...
International audienceWe consider the spatially homogeneous Boltzmann equation for ballistic annihil...