Zeta-regularized vacuum expectation values from quantum computing simulations
Karl Jansen, Tobias Hartung

TL;DR
This paper explores using quantum computing to numerically evaluate zeta-regularized vacuum expectation values in quantum field theories, linking path integrals and Fourier integral operator zeta-functions for regularization.
Contribution
It introduces a novel approach to compute zeta-regularized vacuum expectation values using quantum algorithms, bridging quantum field theory and quantum computing.
Findings
Demonstrates quantum algorithms can evaluate zeta-regularized quantities
Provides a simple example of zeta-regularization in quantum field theory
Establishes a connection between path integrals and Fourier zeta-functions
Abstract
The zeta-regularization allows to establish a connection between Feynman's path integral and Fourier integral operator zeta-functions. This fact can be utilized to perform the regularization of the vacuum expectation values in quantum field theories. In this proceeding, we will describe the concept of the zeta-regularization, give a simple example and demonstrate that quantum computing can be employed to numerically evaluate zeta-regulated vacuum expectation values on a quantum computer.
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