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This paper proposes a theoretical extension of quantum mechanics using nonadditive q-calculus to model radial deformations in rotationally covariant systems. The study derives specific observable consequences, such as splitting harmonic oscillator energy levels based on orbital angular momentum, while maintaining rotational symmetry. It represents fundamental research into the mathematical structure of quantum theory rather than an application or hardware development.
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A $q$-Inspired Radial Quantum Kinematics

arXiv2 min de cititArticolul și perspectiva sunt în engleză.

arXiv:2610.28061v1 Announce Type: new Abstract: We study how the one-dimensional deformation suggested by nonadditive $q$-calculus can be extended to a rotationally covariant quantum model and what observable consequences follow from this extension. We choose a radial extension about a distinguished center in which only the radial derivative is deformed, while tangential derivatives retain their ordinary form. Within this model, we construct self-adjoint frame-momentum operators and derive a rotationally invariant uncertainty bound with a correction proportional to the mean distance from the center. We then adopt a non-negative kinetic Hamiltonian built from these momenta and derive the leading harmonic-oscillator energy shifts for weak deformation. The energy corrections split the levels with different orbital angular momenta that are degenerate in the undeformed oscillator, while preserving the degeneracy associated with rotational symmetry.

Abstract:We study how the one-dimensional deformation suggested by nonadditive $q$-calculus can be extended to a rotationally covariant quantum model and what observable consequences follow from this extension. We choose a radial extension about a distinguished center in which only the radial derivative is deformed, while tangential derivatives retain their ordinary form. Within this model, we construct self-adjoint frame-momentum operators and derive a rotationally invariant uncertainty bound with a correction proportional to the mean distance from the center. We then adopt a non-negative kinetic Hamiltonian built from these momenta and derive the leading harmonic-oscillator energy shifts for weak deformation. The energy corrections split the levels with different orbital angular momenta that are degenerate in the undeformed oscillator, while preserving the degeneracy associated with rotational symmetry.

arXiv:2610.28061 [quant-ph]

(or arXiv:2610.28061v1 [quant-ph] for this version)

https://doi.org/10.48550/arXiv.2610.28061 Focus to learn more arXiv-issued DOI via DataCite (pending registration)

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