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December 4, 20250 citationsOpen Access

The Foundations of Roughness Calculus: An Axiomatic Framework for Non-Differentiable Geometry and the Unification of Complexity Classes

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LSLee Sung-gil

Key Points

  • Roughness Index acts as a dynamic variable, enhancing the understanding of system analysis, including Quantum Mechanics.
  • The Geometric Uncertainty Principle connects energy potential with fractal dimension, highlighting critical thresholds for stability.
  • Establishing the Sunggil Derivative based on p-variation density offers insights into new fields of geometry and complexity.
  • This axiomatic framework lays groundwork for addressing Millennium Problems related to Computational Complexity and fluid dynamics.

Abstract

We present a new mathematical system, ”Roughness Calculus”, designed to rigorous analyze systems where classical smoothness breaks down. While traditional calculusrelies on the limit of differentiable manifolds (α = 1), our framework treats the Roughness Index α ∈ (0, 1] as a fundamental dynamic variable. We establish the Geometric Uncer- tainty Principle (E · α = κ) as the primary axiom, linking the energy potential of a system to the fractal dimension of its path. From this axiom, we derive the ”Sunggil Derivative” basedon p-variation density. This axiomatic system provides a unified proof for the Millennium Problems: identifying α = 1/2 as the critical stability threshold for Quantum Mechanics (RH) and Fluid Dynamics (NSE), and α → 0 as the singularity of Computational Complexity (P vsNP). This paper serves as the foundational treatise for the author’s research series on Rough Spectral Geometry.

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Cite This Study

Lee Sung-gil (2025) studied this question.

synapsesocial.com/papers/694025742d562116f28fde2bhttps://doi.org/10.5281/zenodo.17808777
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