Static chaos and scaling behaviour in the spin-glass phase
Felix Ritort
Abstract
We discuss the problem of static chaos in spin glasses. In the case of magnetic field perturbations, we propose a scaling theory for the spin-glass phase. Using the mean-field approach we argue that some pure states are suppressed by the magnetic field and their free energy cost is determined by the finite-temperature fixed point exponents. In this framework, numerical results suggest that mean-field chaos exponents are probably exact in finite dimensions. If we use the droplet approach, numerical results suggest that the zero-temperature fixed point exponent θ is very close to d-32. In both approaches d=3 is the lower critical dimension in agreement with recent numerical simulations.
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