All the D-Branes of Resurgence
Ricardo Schiappa, Maximilian Schwick, Noam Tamarin

TL;DR
This paper explores the role of negative-tension D-branes in resurgence theory, extending matrix model and Liouville field theory analyses to minimal strings, JT gravity, and topological strings, revealing new nonperturbative sectors.
Contribution
It introduces negative-tension ZZ-branes as essential for resurgence and develops a unified framework for nonperturbative sectors across string theories using matrix models and conformal field theory.
Findings
Negative-tension ZZ-branes correspond to anti-eigenvalues in matrix models.
Constructed minimal-string free-energy transseries with resurgent Stokes data.
Extended analysis to JT gravity, topological strings, and AdS spacetime with consistent checks.
Abstract
It was recently shown how to account for all instantons of hermitian matrix models via (anti-) eigenvalue-tunneling -- including both exponentially-suppressed and exponentially-enhanced transseries-transmonomials which are predicted by resurgence. Matrix-model eigenvalue-tunneling corresponds to ZZ-branes. The present work shows how matrix-model anti-eigenvalues correspond to negative-tension ZZ-branes; and how to compute generic nonperturbative sectors -- with both ZZ and negative-tension-ZZ branes -- in the minimal-string free-energy. Negative-tension D-branes are herein a requirement of resurgence. This results in the construction of minimal-string free-energy transseries and the analytic computation of their resurgent Stokes data. Calculations are presented via Liouville boundary conformal field theory and via (matching) matrix model analysis. Minimal-string results are extended to…
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Taxonomy
TopicsBlack Holes and Theoretical Physics · Nonlinear Waves and Solitons · Particle physics theoretical and experimental studies
