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This paper advances quantum computing theory by introducing a geometric framework for indeterminacy using polar duality between convex bodies. By linking symplectic capacities and John ellipsoids to quantum blobs, the authors derive fundamental uncertainty relations without relying on statistical formulations. This theoretical development deepens our mathematical understanding of the Robertson–Schrödinger inequalities and their structural origins in phase space geometry.
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On Quantum Indeterminacy and the Uncertainty Principle

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arXiv:2605.01103v4 Announce Type: replace Abstract: We propose a geometric formulation of quantum indeterminacy based on polar duality between convex bodies representing position and momentum data. A pair (X,P) of centrally symmetric convex bodies is said to satisfy the indeterminacy condition when the h-polar of X is included in P. We show that this condition naturally arises from the geometry of quantum blobs and is closely related to Hardy's uncertainty principle and the Donoho--Stark inequalities. Using symplectic capacities and John ellipsoids, we associate a canonical covariance ellipsoid with every quantum polar pair and prove that it satisfies the quantum condition. The Robertson--Schr\"odinger inequalities follow as a consequence. This provides a non-statistical formulation of quantum indeterminacy from which the usual uncertainty relations emerge. which the usual uncertainty relations emerge.

Abstract:We propose a geometric formulation of quantum indeterminacy based on polar duality between convex bodies representing position and momentum data. A pair (X,P) of centrally symmetric convex bodies is said to satisfy the indeterminacy condition when the h-polar of X is included in P. We show that this condition naturally arises from the geometry of quantum blobs and is closely related to Hardy's uncertainty principle and the Donoho--Stark inequalities. Using symplectic capacities and John ellipsoids, we associate a canonical covariance ellipsoid with every quantum polar pair and prove that it satisfies the quantum condition. The Robertson--Schrödinger inequalities follow as a consequence. This provides a non-statistical formulation of quantum indeterminacy from which the usual uncertainty relations emerge. which the usual uncertainty relations emerge.

Final revision; to appear in Proc. Royal Soc. A

Quantum Physics (quant-ph); Mathematical Physics (math-ph); Geometric Topology (math.GT); Symplectic Geometry (math.SG)

arXiv:2605.01103 [quant-ph]

(or arXiv:2605.01103v4 [quant-ph] for this version)

https://doi.org/10.48550/arXiv.2605.01103 Focus to learn more arXiv-issued DOI via DataCite

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