Against temperature chaos in naive Thouless-Anderson-Palmer equations
arXiv:cond-mat/0012296 · doi:10.1103/PhysRevB.63.184438
Abstract
We study the temperature structure of the naive TAP equations by mean of a recursion algorithm. The problem of the chaos in temperature is addressed using the notion of the temperature evolution of equilibrium states. The lowest free energy states show relevant correlations with the ground state, and a careful finite size analysis indicates that these correlations are not finite size effects, ruling out the possibility of chaos in temperature even in the thermodynamic limit. The correlations of the equilibrium states with respect to the ground state are investigated. The performance of a new heuristic algorithm for the search of ground states is also discussed.
13 pages, 8 eps figures. Several minor changes. References added. Published version
Cited by in corpus (17)
- Adsorption hysteresis and capillary condensation in disordered porous solids: a density functional study
- Generalization of the cavity method for adiabatic evolution of Gibbs states
- Chaos in temperature in the Sherrington-Kirkpatrick model
- Unraveling Quantum Annealers using Classical Hardness
- Temperature chaos in 3D Ising Spin Glasses is driven by rare events
- Fragility of the Free-Energy Landscape of a Directed Polymer in Random Media
- Overlap Among States at Different Temperatures in the SK Model
- Practical engineering of hard spin-glass instances
- Memory of multiple aging stages above the freezing temperature in the relaxor ferroelectric PLZT
- Temperature chaos is present in off-equilibrium spin-glass dynamics
- Dynamic Variational Study of Chaos: Spin Glasses in Three Dimensions
- Magnetic field chaos in the SK Model
- Temperature chaos is a non-local effect
- Temperature chaos in a replica symmetry broken spin glass model - A hierarchical model with temperature chaos -
- Spin-glass dynamics: experiment, theory and simulation
- High temperature memory in (Pb/La)(Zr/Ti)O_3 as intrinsic of the relaxor state rather than due to defect relaxation
- Computational Bottlenecks of Quantum Annealing