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May 16, 2026Journal of Applied Analysis & Computation0 citationsOpen Access

(Quantum, Deformed)-Fractional Complex Steps: Theory, Entropy Analysis, and Imaging Applications

RIRabha W. IbrahimDBDumitru Baleanu

Key Points

  • This research aims to develop a generalized quantum fractional complex step framework for analyzing fractional derivatives.
  • Introduced the $(q, au)$-Fractional Complex Step Method (FCSM) for numerical evaluations.
  • Established convergence and error estimates based on analytic regularity.
  • Derived fractional entropy identities for generalized diffusion systems.
  • Demonstrated the framework's effectiveness with illustrative numerical examples.
  • Presented analytical properties of the $(q, au)$-Gamma function and related operators.
  • Extended classical complex step methods to analyze fractional operators in various contexts.

Abstract

We introduce a generalized quantum (q, ) -fractional complex step framework for the numerical evaluation of fractional derivatives based on quantum-deformed special functions. We develop rigorous definitions of the (q, ) -Fractional Complex Step Method (FCSM), establish convergence and error estimates under analytic regularity, and derive fractional entropy identities, including Tsallis and Shannon H-theorems, for generalized diffusion systems. Analytical properties of the (q, ) -Gamma function and related operators are presented, together with illustrative numerical examples. The proposed framework extends classical complex step methods and provides a mathematically rigorous toolset for analyzing fractional operators in both pure and applied contexts.

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Cite This Study

Ibrahim et al. (2026) studied this question.

synapsesocial.com/papers/6a080a71a487c87a6a40c781https://doi.org/10.11948/20250379
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