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Two-point sum-rules in three-dimensional Yang-Mills theory

Caron-Huot, Simon·Pokraka, Andrzej·Zahraee, Zahra
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Abstract

We compute the stress-tensor two-point function in three-dimensional Yang-Mills theory to three-loops in perturbation theory. Using its calculable shape at high momenta, we test the notion that its Borel transform is saturated at low energies by the lowest glueball state(s). This assumption provides relatively stable estimates for the mass of the lightest glueball that we compare with lattice simulations. We also provide estimates for the coupling of the lightest glueball to the stress tensor. Along the way, we comment on the extent that such estimates are non-rigorous. Lastly, we discuss the possibility of applying the sum-rule analysis to two-point functions of higher-spin operators and obtain a crude approximation for the glueball couplings to these operators.

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Caron-Huot, Simon, Pokraka, Andrzej, Zahraee, Zahra. 2024-01-31. Two-point sum-rules in three-dimensional Yang-Mills theory. https://doi.org/10.1007/jhep01(2024)195

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