2016
DOI: 10.1007/s00220-016-2808-3
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Parisi Formula, Disorder Chaos and Fluctuation for the Ground State Energy in the Spherical Mixed p-Spin Models

Abstract: We show that the limiting ground state energy of the spherical mixed p-spin model can be identified as the infimum of certain variational problem. This complements the well-known Parisi formula for the limiting free energy in the spherical model. As an application, we obtain explicit formulas for the limiting ground state energy in the replica symmetry, one level of replica symmetry breaking and full replica symmetry breaking phases at zero temperature. In addition, our approach leads to new results on disorde… Show more

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Cited by 65 publications
(97 citation statements)
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References 35 publications
(98 reference statements)
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“…A considerable progress achieved in the last decades in developing rigorous aspects of that theory [4,29] makes this task, in principle, feasible for the cases when the random energy function H s (x) is Gaussian-distributed. The model where configurations are restricted to the surface of a sphere are known in the spin-glass literature as 'spherical models', but their successful treatment, originally nonrigorous [13,12,23] and in recent years rigorous [2,5,10,11,36,35], seems again be restricted to the normally-distributed case. In the present case however the cost function is per se not Gaussian, but represented as a sum of squared Gaussian-distributed terms.…”
Section: Propositionmentioning
confidence: 99%
“…A considerable progress achieved in the last decades in developing rigorous aspects of that theory [4,29] makes this task, in principle, feasible for the cases when the random energy function H s (x) is Gaussian-distributed. The model where configurations are restricted to the surface of a sphere are known in the spin-glass literature as 'spherical models', but their successful treatment, originally nonrigorous [13,12,23] and in recent years rigorous [2,5,10,11,36,35], seems again be restricted to the normally-distributed case. In the present case however the cost function is per se not Gaussian, but represented as a sum of squared Gaussian-distributed terms.…”
Section: Propositionmentioning
confidence: 99%
“…Suppose it were the case that H(σ −,e ) < H(ϕ(σ +,e )) -and in particular that σ −,e = ϕ(σ +,e ). Then, it would also follow by (10) and (11) that H(ϕ(σ −,e )) < H(σ +,e ), contradicting the fact that σ +,e is the ground state. This completes the proof.…”
Section: 1mentioning
confidence: 97%
“…The cavity fields Z(σ) and Y (σ) in (5.3) and (5.4) are centered Gaussian processes with covariances: 7) and the remainder term r(ρ) has covariance,…”
Section: The Aizenman-sims-starr Schemementioning
confidence: 99%