Glueball Spectra from a Matrix Model of Pure Yang-Mills Theory
Nirmalendu Acharyya, A. P. Balachandran, Mahul Pandey, Sambuddha, Sanyal, Sachindeo Vaidya

TL;DR
This paper uses a matrix model to estimate low-lying glueball energies in pure Yang-Mills theory, deriving an RG equation for the coupling and predicting glueball masses consistent with lattice results.
Contribution
It introduces a variational matrix model approach to approximate Yang-Mills glueball spectra and derives an RG equation for the coupling based on ground state energy fixing.
Findings
Glueball mass estimates agree with lattice simulations
Derived RG equation for Yang-Mills coupling as a function of sphere radius
Provided a variational method for low-energy spectrum approximation
Abstract
We present variational estimates for the low-lying energies of a simple matrix model that approximates Yang-Mills theory on a three-sphere of radius . By fixing the ground state energy, we obtain the (integrated) renormalization group (RG) equation for the Yang-Mills coupling as a function of . This RG equation allows to estimate the masses of other glueball states, which we find to be in excellent agreement with lattice simulations.
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