
arXiv: math/0210090
We consider three models (elliptic, flat and hyperbolic) of Gaussian random analytic functions distinguished by invariance of their zeroes distribution. Asymptotic normality is proven for smooth functionals (linear statistics) of the set of zeroes.
26 pages. Version 2 (final): the end of the proof corrected (sections 3.2, 3.3); small insertions to Introduction and References
Mathematics - Complex Variables, Probability (math.PR), FOS: Physical sciences, 30B20, Mathematical Physics (math-ph), analytic functions, 30C15, 60G60, 82B10, Stochastic processes, randon polynomials, FOS: Mathematics, Complex Variables (math.CV), Gaussian random variables, Mathematical Physics, Mathematics - Probability, 30B20; 30C15, 60G60, 82B10
Mathematics - Complex Variables, Probability (math.PR), FOS: Physical sciences, 30B20, Mathematical Physics (math-ph), analytic functions, 30C15, 60G60, 82B10, Stochastic processes, randon polynomials, FOS: Mathematics, Complex Variables (math.CV), Gaussian random variables, Mathematical Physics, Mathematics - Probability, 30B20; 30C15, 60G60, 82B10
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