Circumventing spin glass traps by microcanonical spontaneous symmetry breaking

07/01/2020
by   Hai-Jun Zhou, et al.
0

The planted p-spin interaction model is a paradigm of random-graph systems possessing both a ferromagnetic ground state and an intermediate spin glass phase. Conventional simulated annealing and message-passing algorithms could not reach the planted ground state but are trapped by an exponential number of spin glass states. Here we propose discontinuous microcanonical spontaneous symmetry breaking (MSSB) as a simple mechanism to circumvent all the spin glass traps. The existence of a discontinuous MSSB phase transition is confirmed by microcanonical Monte Carlo simulations. We conjecture that the planted ground state could be retrieved in polynomial time by applying machine-learning methods (such as perceptron-learning) to microcanonically sampled independent configurations. Three candidate algorithms are proposed.

READ FULL TEXT

page 1

page 2

page 3

page 4

research
05/27/2021

Anomalous phase separation and hidden coarsening of super-clusters in the Falicov-Kimball model

We show that the celebrated Falicov-Kimball model exhibits rich and intr...
research
02/14/2023

Distributed Symmetry Breaking on Power Graphs via Sparsification

In this paper, we present efficient distributed algorithms for classical...
research
06/22/2018

Replica Symmetry and Replica Symmetry Breaking for the Traveling Salesperson Problem

We study the energy landscape of the Traveling Salesperson problem (TSP)...
research
11/04/2020

Belief Propagation on the random k-SAT model

Corroborating a prediction from statistical physics, we prove that the B...
research
03/17/2018

Replica Symmetry Breaking in Bipartite Spin Glasses and Neural Networks

Some interesting recent advances in the theoretical understanding of neu...
research
05/29/2018

Statistical mechanical analysis of sparse linear regression as a variable selection problem

An algorithmic limit of compressed sensing or related variable-selection...
research
09/08/2010

Artificial Neural Networks, Symmetries and Differential Evolution

Neuroevolution is an active and growing research field, especially in ti...

Please sign up or login with your details

Forgot password? Click here to reset