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Conformable fractional Dirac system on time scales
Tuba Gulsen1, Emrah Yilmaz1, Sertac Goktas2
1Department of Mathematics, Faculty of Science, Firat University, Elazig, 23119 Turkey.
Summary
This study introduces conformable fractional (CF) Dirac systems on time scales, extending spectral properties and providing asymptotic estimates for eigenfunctions. These findings bridge fractional calculus and time scale calculus in spectral theory.
Area of Science:
- Spectral theory
- Fractional calculus
- Time scale calculus
Background:
- Classical Dirac systems have well-established spectral properties.
- Extending these properties to fractional and time scale domains is an active research area.
- Conformable fractional calculus offers a novel approach to generalizing differential equations.
Purpose of the Study:
- To investigate the conformable fractional (CF) Dirac system with separated boundary conditions on arbitrary time scales.
- To extend fundamental spectral properties of the classical Dirac system to the CF context.
- To derive asymptotic estimates for eigenfunctions within the CF Dirac eigenvalue problem.
Main Methods:
- Analysis of the conformable fractional Dirac system on time scales.
- Extension of spectral properties from classical to CF Dirac systems.
- Derivation of asymptotic estimates for eigenfunctions using established mathematical techniques.
Main Results:
- Established spectral properties for the CF Dirac system on time scales.
- Obtained asymptotic estimates for the eigenfunctions of the CF Dirac eigenvalue problem.
- Developed a constructive procedure for solving the CF Dirac eigenvalue problem.
Conclusions:
- The study successfully extends spectral theory to conformable fractional Dirac systems on time scales.
- The derived asymptotic estimates provide valuable insights into eigenfunction behavior.
- This work consolidates the connection between fractional calculus, time scale calculus, and spectral theory.
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