{ "id": "1502.01427", "version": "v1", "published": "2015-02-05T03:43:55.000Z", "updated": "2015-02-05T03:43:55.000Z", "title": "Two-Point Correlation Functions and Universality for the Zeros of Systems of SO(n+1)-invariant Gaussian Random Polynomials", "authors": [ "Pavel M. Bleher", "Yushi Homma", "Roland K. W. Roeder" ], "comment": "24 pages, 1 figure", "categories": [ "math-ph", "math.AG", "math.MP", "math.PR" ], "abstract": "We study the two-point correlation functions for the zeroes of systems of $SO(n+1)$-invariant Gaussian random polynomials on $\\mathbb{RP}^n$ and systems of ${\\rm isom}(\\mathbb{R}^n)$-invariant Gaussian analytic functions. Our result reflects the same \"repelling,\" \"neutral,\" and \"attracting\" short-distance asymptotic behavior, depending on the dimension, as was discovered in the complex case by Bleher, Shiffman, and Zelditch. For systems of the ${\\rm isom}(\\mathbb{R}^n)$-invariant Gaussian analytic functions we also obtain a fast decay of correlations at long distances. We then prove that the correlation function for the ${\\rm isom}(\\mathbb{R}^n)$-invariant Gaussian analytic functions is \"universal,\" describing the scaling limit of the correlation function for the restriction of systems of the $SO(k+1)$-invariant Gaussian random polynomials to any $n$-dimensional $C^2$ submanifold $M \\subset \\mathbb{RP}^k$. This provides a real counterpart to the universality results that were proved in the complex case by Bleher, Shiffman, and Zelditch. (Our techniques also apply to the complex case, proving a special case of the universality results of Bleher, Shiffman, and Zelditch.)", "revisions": [ { "version": "v1", "updated": "2015-02-05T03:43:55.000Z" } ], "analyses": { "keywords": [ "two-point correlation functions", "invariant gaussian analytic functions", "invariant gaussian random polynomials", "complex case", "universality results" ], "note": { "typesetting": "TeX", "pages": 24, "language": "en", "license": "arXiv", "status": "editable", "adsabs": "2015arXiv150201427B" } } }