热力学极限第一李杨零

IF 3.1 1区 数学 Q1 MATHEMATICS Communications on Pure and Applied Mathematics Pub Date : 2023-09-11 DOI:10.1002/cpa.22159
Jianping Jiang, Charles M. Newman
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引用次数: 1

摘要

我们完成了1952年Yang和Lee提出的关于热力学奇点正是C ${\mathbb {C}}$中有限体积奇点在R ${\mathbb {R}}$中的极限的验证。对于在逆温度β≥0 $\beta \ge 0$和外场h处定义在有限的Λ∧Z d $\Lambda \subset \mathbb {Z}^d$上的Ising模型,设α 1 (Λ,β) $\alpha _1(\Lambda ,\beta )$是其配分函数(在变量h中)的第一个零(最接近原点)的模。我们证明α 1 (Λ,β) $\alpha _1(\Lambda ,\beta )$减小到α 1 (zd,β) $\alpha _1(\mathbb {Z}^d,\beta )$随着Λ增大到zd $\mathbb {Z}^d$,其中α 1 (zd, β)∈[0,∞)$\alpha _1(\mathbb {Z}^d,\beta )\in [0,\infty )$为以原点为中心的最大圆盘的半径,在该圆盘中,热力学极限下的自由能是解析的。我们还注意到α 1 (Z d, β) $\alpha _1(\mathbb {Z}^d,\beta )$是严格正的,当且仅当β严格小于临界逆温度。
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Thermodynamic limit of the first Lee-Yang zero

We complete the verification of the 1952 Yang and Lee proposal that thermodynamic singularities are exactly the limits in R ${\mathbb {R}}$ of finite-volume singularities in C ${\mathbb {C}}$ . For the Ising model defined on a finite Λ Z d $\Lambda \subset \mathbb {Z}^d$ at inverse temperature β 0 $\beta \ge 0$ and external field h, let α 1 ( Λ , β ) $\alpha _1(\Lambda ,\beta )$ be the modulus of the first zero (that closest to the origin) of its partition function (in the variable h). We prove that α 1 ( Λ , β ) $\alpha _1(\Lambda ,\beta )$ decreases to α 1 ( Z d , β ) $\alpha _1(\mathbb {Z}^d,\beta )$ as Λ increases to Z d $\mathbb {Z}^d$ where α 1 ( Z d , β ) [ 0 , ) $\alpha _1(\mathbb {Z}^d,\beta )\in [0,\infty )$ is the radius of the largest disk centered at the origin in which the free energy in the thermodynamic limit is analytic. We also note that α 1 ( Z d , β ) $\alpha _1(\mathbb {Z}^d,\beta )$ is strictly positive if and only if β is strictly less than the critical inverse temperature.

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来源期刊
CiteScore
6.70
自引率
3.30%
发文量
59
审稿时长
>12 weeks
期刊介绍: Communications on Pure and Applied Mathematics (ISSN 0010-3640) is published monthly, one volume per year, by John Wiley & Sons, Inc. © 2019. The journal primarily publishes papers originating at or solicited by the Courant Institute of Mathematical Sciences. It features recent developments in applied mathematics, mathematical physics, and mathematical analysis. The topics include partial differential equations, computer science, and applied mathematics. CPAM is devoted to mathematical contributions to the sciences; both theoretical and applied papers, of original or expository type, are included.
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