Toward Holographic Reconstruction of Bulk Geometry from Lattice Simulations
Enrico Rinaldi, Evan Berkowitz, Masanori Hanada, Jonathan Maltz and, Pavlos Vranas

TL;DR
This paper demonstrates a method to reconstruct bulk black hole geometry from lattice simulations of gauge theories, providing quantitative insights into holography and black hole physics.
Contribution
It introduces a lattice Monte Carlo approach to probe black hole geometry via gauge theory D-brane interactions, validated in a matrix model dual to a black zero-brane.
Findings
Method successfully reconstructs bulk geometry in high temperature regime
Quantitative agreement with theoretical predictions
Potential for exploring quantum gravity phenomena
Abstract
A black hole described in gauge theory consists of D-branes. By separating one of the D-branes from others and studying the interaction between them, the black hole geometry can be probed. In order to obtain quantitative results, we employ the lattice Monte Carlo simulation. As a proof of the concept, we perform an explicit calculation in the matrix model dual to the black zero-brane in type IIA string theory. We demonstrate this method actually works in the high temperature region, where the stringy correction is large. We argue possible dual gravity interpretations.
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