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June 1, 20260 citationsOpen Access

Geometric Resolution of the Gauss Circle Problem via Defect Current Theory

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MFMichel Febba

Key Points

  • This work aims to establish the upper bound of the Hardy conjecture related to the Gauss circle problem using defect currents.
  • Projected the problem onto a flat torus.
  • Defined a surface defect current as the obstruction between the continuous disk and the smoothed lattice.
  • Applied the geometric Fubini theorem to analyze the mass of the defect current.
  • Established M(T_R) = Θ(R^{1/2}), showing the relationship of current mass to geometric parameters.
  • Demonstrated |E(R)| ≤ O(R^{1/2+ε}), confirming the Hardy upper bound.
  • Characterized the optimality of the energy envelope with the exponent 1/2 as a dimensional signature.

Abstract

This work establishes the upper bound of the Hardy conjecture for the Gauss circle problem. The problem is projected onto the flat torus and a surface defect current TR is defined as the restriction, to the normal bundle of the boundary, of the obstruction between the continuous disk and the smoothed lattice. By the geometric Fubini theorem, the mass of TR is asymptotically the product of the length of the circle and the thickness of the transverse fiber, yielding M (TR) = Θ (R^1/2). The fundamental inequality for currents then gives |E (R) | ≤ M (TR) + O (R^1/2) = O (R^1/2+ε), establishing the Hardy upper bound. The lower bound on the mass characterizes the optimality of the energy envelope. The exponent 1/2 emerges as the dimensional signature of the normal bundle.

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Cite This Study

Michel Febba (2026) studied this question.

synapsesocial.com/papers/6a1d234302fbce9130638d82https://doi.org/10.5281/zenodo.20460388
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