Hamilton–Jacobi conjecture for the bipartite enriched free energy
Hamilton–Jacobi conjecture for the bipartite enriched free energy
Let be the space of paths used to parameterize overlaps, let , and let be the initial free-energy function defined by . For each , let be the enriched free energy of the bipartite model. Bipartite enriched free-energy conjecture. The functions converge to the function solving
This is the proposed Hamilton–Jacobi description of the limiting free energy for the bipartite spin-glass model. The source does not provide evidence that the conjecture has been proved or disproved.
Progress summary
The conjecture remains unproved: researchers have established only one-sided information about the proposed limit, not convergence to it.
Formulated in the 2021 work on nonconvex interactions, the conjecture asserts that the bipartite enriched free energies converge to the solution of the proposed infinite-dimensional Hamilton–Jacobi equation. The nonconvex interaction is identified as the central obstruction.
Known results
- Any subsequential limit satisfies the Hamilton–Jacobi equation almost everywhere.
- The viscosity solution supplies a one-sided bound, including .
- The nonlinearity is neither convex nor concave, so standard variational methods do not apply.
October 2024 status update
A later treatment states explicitly that Conjecture is unresolved: the matching upper bound and hence convergence to the viscosity solution remain missing. No proof, disproof, counterexample, or claimed AI solution was found.
Current status (as of August 2026): The one-sided bound and almost-everywhere subsequential-limit statement are known, but convergence of to the viscosity solution remains open.
Sources & referencesView supporting material
Primary source
Jean-Christophe Mourrat, “Spin glasses and the Parisi formula”, arXiv:2510.01054 (2025).
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