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Utilization of Haar wavelet collocation technique for fractal-fractional order problem
Kamal Shah1,2, Rohul Amin3, Thabet Abdeljawad1,4
1Department of Mathematics and Sciences, Prince Sultan University, Riyadh 11586, Saudi Arabia.
This study introduces the Haar wavelet collocation method for solving fractal-fractional differential equations (F-FDEs). It provides algorithms for approximate solutions and establishes qualitative theory results, including Ulam-Hyers stability.
Area of Science:
- Mathematics
- Applied Mathematics
- Numerical Analysis
Background:
- Fractal-fractional differential equations (F-FDEs) are increasingly important in modeling complex phenomena.
- Existing methods for solving F-FDEs have limitations in terms of applicability and efficiency.
- The qualitative theory and numerical solutions of F-FDEs require further investigation.
Purpose of the Study:
- To establish adequate results for the qualitative theory of F-FDEs.
- To develop an approximate numerical solution for F-FDEs using a novel method.
- To analyze the Ulam-Hyers stability of the proposed solutions.
Main Methods:
- The Haar wavelet collocation (H-W-C) method is employed for numerical approximation.
- A general algorithm is established for computing numerical solutions of F-FDEs.
- Banach fixed point theorems are utilized to establish qualitative theory results.
Main Results:
- The Haar wavelet collocation method is successfully applied to F-FDEs, a rarely used approach.
- A general algorithm for the numerical solution of F-FDEs is presented.
- Theoretical results concerning the qualitative aspects and Ulam-Hyers stability are established.
Conclusions:
- The Haar wavelet collocation method offers an effective approach for solving F-FDEs.
- The study contributes to the qualitative theory and numerical analysis of F-FDEs.
- The findings are validated through numerical examples and error analysis.
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