Discrete Riemann surfaces: linear discretization and its convergence
Alexander Bobenko, Mikhail Skopenkov

TL;DR
This paper introduces a linear discretization method for complex analysis on Riemann surfaces, proving its convergence and establishing a discrete Riemann--Roch theorem using energy estimates.
Contribution
It develops a new linear discretization approach for complex analysis on Riemann surfaces and proves key convergence results and a discrete Riemann--Roch theorem.
Findings
Discrete period matrices converge to continuous ones
Discrete Abelian integrals converge to continuous integrals
Established a discrete Riemann--Roch theorem
Abstract
We develop linear discretization of complex analysis, originally introduced by R. Isaacs, J. Ferrand, R. Duffin, and C. Mercat. We prove convergence of discrete period matrices and discrete Abelian integrals to their continuous counterparts. We also prove a discrete counterpart of the Riemann--Roch theorem. The proofs use energy estimates inspired by electrical networks.
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