On the large genus asymptotics of Weil-Petersson volumes
By Peter Zograf. 2008
47 citations recorded by the source corpus.
A relatively fast algorithm for evaluating Weil-Petersson volumes of moduli spaces of complex algebraic curves is proposed. On the basis of numerical data, a conjectural large genus asymptotics of the Weil-Petersson volumes is computed. Asymptotic formulas for the intersection numbers involving $\psi$-classes are conjectured as well. The precision of the formulas is high enough to believe that they are exact.
Subfields: Computational Theory and Mathematics, Geometry and Topology, Mathematical Physics
View Paper: https://www.semanticscholar.org/paper/731ac60dc60ec155bff010ed473910181094d5cc
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Citations in the corpus
- Growth of Weil-Petersson volumes and random hyperbolic surfaces of large genus (2010, methodology): “ Vg,n+1 = 1+O(1/g), as g→ ∞. • b): Vg,n+1 2gVg,n = 4π2 +O(1/g), • c): Vg,n Vg−1,n+2 = 1+O(1/g). Remark. • These estimates are consistent with the conjectures on the growth of WeilPetersson volumes in [Z2]; we remark that the statements had been predicted by Peter Zograf. • Following the ideas used i”
- JT gravity and the ensembles of random matrix theory (2019, methodology): “good large genus approximate formulas, based on Zograf’s [109] conjectures for the asymptotics of intersection numbers.”
- JT gravity as a matrix integral (2019, methodology): “For Vg,0 and for Vg,1(b) with b g, this prediction agrees with the Zograf conjecture [69].”
- Towards large genus asymptotics of intersection numbers on moduli spaces of curves (2011, background): “ces Mg,n of n-pointed complex algebraic curves of genus gas g→ ∞.Here V g,n= 1 (3g−3+n)! Z Mg,n ω3g−3+n, where ωg,n is the Weil-Petersson symplectic form on Mg,n. The following conjecture was made in [Z] on the basis of numerical data: Conjecture 1.1. For any fixed n≥ 0 Vg,n = (2g−3+n)!(4π2)2g−3+n 1 ”