Non-local nonstabiliserness in Gluon and Graviton Scattering

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Hauptverfasser: Gargalionis, John, Moynihan, Nathan, Ashby, Michael L. Reichenberg, Wallace, Ewan N. V., White, Chris D., White, Martin J.
Format: Preprint
Veröffentlicht: 2026
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author Gargalionis, John
Moynihan, Nathan
Ashby, Michael L. Reichenberg
Wallace, Ewan N. V.
White, Chris D.
White, Martin J.
author_facet Gargalionis, John
Moynihan, Nathan
Ashby, Michael L. Reichenberg
Wallace, Ewan N. V.
White, Chris D.
White, Martin J.
contents The property of non-stabiliserness, or ``magic'', is of interest in quantum computing due to its role in developing fault-tolerant quantum algorithms with genuine computational advantage over classical counterparts. There has been much interest in quantifying magic in various physical systems, in order to probe how to produce and enhance it. The production of magic has previously been quantified in gluon and graviton scattering, in the so-called helicity basis relating particle spins with momentum directions. For a basis-independent statement, one should instead use the recently developed concept of non-local non-stabiliserness, and our aim in this paper is to derive how this varies for gluon and graviton scattering processes. Our results show that, for many initial states, including those produced with polarised beams, the helicity basis coincides with a basis in which the non-local magic is manifest, providing a physical motivation for using the helicity basis to study quantum information quantities. However, this property breaks upon adding additional operators to the Yang-Mills Lagrangian, as would be the case in new physics scenarios.
format Preprint
id arxiv_https___arxiv_org_abs_2603_04148
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Non-local nonstabiliserness in Gluon and Graviton Scattering
Gargalionis, John
Moynihan, Nathan
Ashby, Michael L. Reichenberg
Wallace, Ewan N. V.
White, Chris D.
White, Martin J.
High Energy Physics - Theory
High Energy Physics - Phenomenology
Quantum Physics
The property of non-stabiliserness, or ``magic'', is of interest in quantum computing due to its role in developing fault-tolerant quantum algorithms with genuine computational advantage over classical counterparts. There has been much interest in quantifying magic in various physical systems, in order to probe how to produce and enhance it. The production of magic has previously been quantified in gluon and graviton scattering, in the so-called helicity basis relating particle spins with momentum directions. For a basis-independent statement, one should instead use the recently developed concept of non-local non-stabiliserness, and our aim in this paper is to derive how this varies for gluon and graviton scattering processes. Our results show that, for many initial states, including those produced with polarised beams, the helicity basis coincides with a basis in which the non-local magic is manifest, providing a physical motivation for using the helicity basis to study quantum information quantities. However, this property breaks upon adding additional operators to the Yang-Mills Lagrangian, as would be the case in new physics scenarios.
title Non-local nonstabiliserness in Gluon and Graviton Scattering
topic High Energy Physics - Theory
High Energy Physics - Phenomenology
Quantum Physics
url https://arxiv.org/abs/2603.04148