The out of equilibrium evolution for an Edwards‐Anderson spin glass is followed for a tenth of a second, a long enough time to let us make safe predictions about the behaviour at experimental scales. This work has been made possible by Janus, an FPGA based special purpose computer. We have thoroughly studied the spin glass correlation functions and the growth of the coherence length for L = 80 lattices in 3D. Our main conclusion is that these spin glasses follow noncoarsening dynamics, at least up to the experimentally relevant time scales
The study of the low temperature phase of spin glass models by means of Monte Carlo simulations is a...
We describe Janus, an application-driven architecture for Monte Carlo simulations of spin glasses. J...
We describe Janus, a massively parallel FPGA-based computer optimized for the simulation of spin gla...
Using the special-purpose computer Janus, we follow the nonequilibrium dynamics of the Ising spin gl...
We study numerically the nonequilibrium dynamics of the Ising spin glass, for a time spanning 11 ord...
We study numerically the nonequilibrium dynamics of the Ising Spin Glass, for a time that spans elev...
We discuss the slow, nonequilibrium, dynamics of spin glasses in their glassy phase. We briefly revi...
We have performed a very accurate computation of the nonequi-librium fluctuation–dissipation ratio f...
We have performed a very accurate computation of the nonequilibrium fluctuation–dissipation ratio fo...
We describe Janus, a massively parallel FPGA-based computer optimized for the simulation of spin gla...
We study numerically the nonequilibrium dynamics of the Ising spin glass, for a time spanning 11 ord...
We describe Janus, an application-driven architecture for Monte Carlo simulations of spin glasses. J...
We present a massive equilibrium simulation of the three-dimensional Ising spin glass at low tempera...
Experiments featuring non-equilibrium glassy dynamics under temperature changes still await interpre...
Spin glass behavior was first seen in metallic alloys with magnetic impurities dispersed randomly in...
The study of the low temperature phase of spin glass models by means of Monte Carlo simulations is a...
We describe Janus, an application-driven architecture for Monte Carlo simulations of spin glasses. J...
We describe Janus, a massively parallel FPGA-based computer optimized for the simulation of spin gla...
Using the special-purpose computer Janus, we follow the nonequilibrium dynamics of the Ising spin gl...
We study numerically the nonequilibrium dynamics of the Ising spin glass, for a time spanning 11 ord...
We study numerically the nonequilibrium dynamics of the Ising Spin Glass, for a time that spans elev...
We discuss the slow, nonequilibrium, dynamics of spin glasses in their glassy phase. We briefly revi...
We have performed a very accurate computation of the nonequi-librium fluctuation–dissipation ratio f...
We have performed a very accurate computation of the nonequilibrium fluctuation–dissipation ratio fo...
We describe Janus, a massively parallel FPGA-based computer optimized for the simulation of spin gla...
We study numerically the nonequilibrium dynamics of the Ising spin glass, for a time spanning 11 ord...
We describe Janus, an application-driven architecture for Monte Carlo simulations of spin glasses. J...
We present a massive equilibrium simulation of the three-dimensional Ising spin glass at low tempera...
Experiments featuring non-equilibrium glassy dynamics under temperature changes still await interpre...
Spin glass behavior was first seen in metallic alloys with magnetic impurities dispersed randomly in...
The study of the low temperature phase of spin glass models by means of Monte Carlo simulations is a...
We describe Janus, an application-driven architecture for Monte Carlo simulations of spin glasses. J...
We describe Janus, a massively parallel FPGA-based computer optimized for the simulation of spin gla...