The paper demonstrates equivalence within algebraic quantum field theories and prefactorization algebras, indicating new insights into complex structures.
This paper revisits the equivalence problem between algebraic quantum field theories and prefactorization algebras defined over globally hyperbolic Lorentzian manifolds. We develop a radically new approach whose main innovative features are 1.) a structural implementation of the additivity property used in earlier approaches and 2.) a reduction of the global equivalence problem to a family of simpler spacetime-wise problems. When applied to the case where the target category is a symmetric monoidal 1-category, this yields a generalization of the equivalence theorem from [Commun. Math. Phys. 377 , 971 (2019)]. In the case where the target is the symmetric monoidal ∞ ∞ -category of cochain complexes, we obtain a reduction of the global ∞ ∞ -categorical equivalence problem to simpler, but still challenging, spacetime-wise problems. The latter would be solved by showing that certain functors between 1-categories exhibit ∞ ∞ -localizations; however, the available detection criteria are inconclusive in our case.
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Benini et al. (2026) studied this question.
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