AbstractWe study the dynamical behavior of D-dimensional linear cellular automata over Zm. We provide an easy-to-check necessary and sufficient condition for a D-dimensional linear cellular automata over Zm to be ergodic and topologically transitive. As a byproduct, we get that for linear cellular automata ergodicity is equivalent to topological transitivity. Finally, we prove that for 1-dimensional linear cellular automata over Zm, regularity (denseness of periodic orbits) is equivalent to surjectivity
We study the dynamical behavior of D-dimensional (D >= 1) additive cellular automata where the alpha...
AbstractWe apply the two different definitions of chaos given by Devaney and by Knudsen for general ...
none4siWe study the dynamical behavior of additive D-dimensional ( cellular automata where the alp...
We study the dynamical behavior of D-dimensional linear cellular automata over Zm. We provide an eas...
We study the dynamical behavior of D-dimensional linear cellular automata over Zm. We provide an eas...
We study the dynamical behavior of D-dimensional linear cellular automata over Zm. We provide an eas...
We study the dynamical behavior of D-dimensional linear cellular automata over Zm. We provide an eas...
AbstractWe study the dynamical behavior of D-dimensional linear cellular automata over Zm. We provid...
AbstractWe study the dynamical behavior of D-dimensional linear cellular automata over Zm. We provid...
none4siWe prove that important properties describing complex behaviours as ergodicity, chaos, topolo...
AbstractWe study two dynamical properties of linear D-dimensional cellular automata over Zm namely, ...
AbstractWe study the dynamical behavior of D-dimensional linear cellular automata over Zm. We provid...
AbstractWe study two dynamical properties of linear D-dimensional cellular automata over Zm namely, ...
We study the dynamical behavior of D-dimensional (D ≥ 1) additive cellular automata where the alphab...
We study the dynamical behavior of D-dimensional (D ≥ 1) additive cellular automata where the alphab...
We study the dynamical behavior of D-dimensional (D >= 1) additive cellular automata where the alpha...
AbstractWe apply the two different definitions of chaos given by Devaney and by Knudsen for general ...
none4siWe study the dynamical behavior of additive D-dimensional ( cellular automata where the alp...
We study the dynamical behavior of D-dimensional linear cellular automata over Zm. We provide an eas...
We study the dynamical behavior of D-dimensional linear cellular automata over Zm. We provide an eas...
We study the dynamical behavior of D-dimensional linear cellular automata over Zm. We provide an eas...
We study the dynamical behavior of D-dimensional linear cellular automata over Zm. We provide an eas...
AbstractWe study the dynamical behavior of D-dimensional linear cellular automata over Zm. We provid...
AbstractWe study the dynamical behavior of D-dimensional linear cellular automata over Zm. We provid...
none4siWe prove that important properties describing complex behaviours as ergodicity, chaos, topolo...
AbstractWe study two dynamical properties of linear D-dimensional cellular automata over Zm namely, ...
AbstractWe study the dynamical behavior of D-dimensional linear cellular automata over Zm. We provid...
AbstractWe study two dynamical properties of linear D-dimensional cellular automata over Zm namely, ...
We study the dynamical behavior of D-dimensional (D ≥ 1) additive cellular automata where the alphab...
We study the dynamical behavior of D-dimensional (D ≥ 1) additive cellular automata where the alphab...
We study the dynamical behavior of D-dimensional (D >= 1) additive cellular automata where the alpha...
AbstractWe apply the two different definitions of chaos given by Devaney and by Knudsen for general ...
none4siWe study the dynamical behavior of additive D-dimensional ( cellular automata where the alp...