We consider planar rotors (XY spins) in Z^d, starting from an initial Gibbs measure and evolving with infinite-temperature stochastic (diffusive) dynamics. At intermediate times, if the system starts at low temperature, Gibbsianness can be lost. Due to the influence of the external initial field, Gibbsianness can be recovered after large finite times. We prove some results supporting this picture
We study the Gibbsian character of time-evolved planar rotor systems on Z^d, d at least 2, in the tr...
We study the Gibbsian character of time-evolved planar rotor systems on Z^d, d at least 2, in the tr...
AbstractWe study the Gibbsian character of time-evolved planar rotor systems (that is, systems which...
We consider planar rotors (XY spins) in Z^d, starting from an initial Gibbs measure and evolving wit...
We consider planar rotors (XY spins) in Z^d, starting from an initial Gibbs measure and evolving wit...
We consider planar rotors (XY spins) in Z^d, starting from an initial Gibbs measure and evolving wit...
We consider planar rotors (XY spins) in Z(d), starting from an initial Gibbs measure and evolving wi...
We consider planar rotors (XY spins) in Z^d, starting from an initial Gibbs measure and evolving wit...
We consider planar rotors (XY spins) in Z^d, starting from an initial Gibbs measure and evolving wit...
We study the Gibbsian character of time-evolved planar rotor systems (that is, systems which have tw...
We study the Gibbsian character of time-evolved planar rotor systems (that is, systems which have tw...
We study the Gibbsian character of time-evolved planar rotor systems (that is, systems which have tw...
We study the Gibbsian character of time-evolved planar rotor systems (that is, systems which have tw...
We study the Gibbsian character of time-evolved planar rotor systems on Z^d, d at least 2, in the tr...
We study the Gibbsian character of time-evolved planar rotor systems on Z^d, d at least 2, in the tr...
We study the Gibbsian character of time-evolved planar rotor systems on Z^d, d at least 2, in the tr...
We study the Gibbsian character of time-evolved planar rotor systems on Z^d, d at least 2, in the tr...
AbstractWe study the Gibbsian character of time-evolved planar rotor systems (that is, systems which...
We consider planar rotors (XY spins) in Z^d, starting from an initial Gibbs measure and evolving wit...
We consider planar rotors (XY spins) in Z^d, starting from an initial Gibbs measure and evolving wit...
We consider planar rotors (XY spins) in Z^d, starting from an initial Gibbs measure and evolving wit...
We consider planar rotors (XY spins) in Z(d), starting from an initial Gibbs measure and evolving wi...
We consider planar rotors (XY spins) in Z^d, starting from an initial Gibbs measure and evolving wit...
We consider planar rotors (XY spins) in Z^d, starting from an initial Gibbs measure and evolving wit...
We study the Gibbsian character of time-evolved planar rotor systems (that is, systems which have tw...
We study the Gibbsian character of time-evolved planar rotor systems (that is, systems which have tw...
We study the Gibbsian character of time-evolved planar rotor systems (that is, systems which have tw...
We study the Gibbsian character of time-evolved planar rotor systems (that is, systems which have tw...
We study the Gibbsian character of time-evolved planar rotor systems on Z^d, d at least 2, in the tr...
We study the Gibbsian character of time-evolved planar rotor systems on Z^d, d at least 2, in the tr...
We study the Gibbsian character of time-evolved planar rotor systems on Z^d, d at least 2, in the tr...
We study the Gibbsian character of time-evolved planar rotor systems on Z^d, d at least 2, in the tr...
AbstractWe study the Gibbsian character of time-evolved planar rotor systems (that is, systems which...