A Walk Through Superstring Theory With an Application to Yang-Mills Theory: K-strings and D-branes as Gauge/Gravity Dual Objects
Kory Stiffler

TL;DR
This paper applies gauge/gravity dualities from superstring theory to analyze k-strings in strongly coupled gauge theories, showing how Dp-branes can model these objects and reproducing known lattice results for the Luscher term.
Contribution
It demonstrates the use of superstring gauge/gravity dualities to compute k-string energies and Luscher terms, aligning with lattice gauge theory findings.
Findings
Good agreement with lattice gauge theory for Luscher term in 2+1 dimensions
K-string energies modeled as Dp-branes in confining supergravity backgrounds
Luscher term emerges as one-loop quantum correction to Dp-brane energy
Abstract
Superstring theory is one current, promising attempt at unifying gravity with the other three known forces: the electromagnetic force, and the weak and strong nuclear forces. Though this is still a work in progress, much effort has been put toward this goal. A set of specific tools which are used in this effort are gauge/gravity dualities. This thesis consists of a specific implementation of gauge/gravity dualities to describe k-strings of strongly coupled gauge theories as objects dual to Dp-branes embedded in confining supergravity backgrounds from low energy superstring field theory. Along with superstring theory, k-strings are also commonly investigated with lattice gauge theory and Hamiltonian methods. A k-string is a colorless combination of quark-antiquark source pairs, between which a color flux tube develops. The two most notable terms of the k-string energy are, for large…
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Taxonomy
TopicsBlack Holes and Theoretical Physics · Superconducting Materials and Applications · Computational Physics and Python Applications
