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Fast Hankel transform of nth order with improved performance
César D Perciante1, José A Ferrari
1Instituto de Física, Facultad de Ingeniería (UdelaR), J. Herrera y Reissig 565, Montevideo, Uruguay.
Summary
This study introduces an advanced algorithm for calculating the nth-order Hankel transform numerically. The new method demonstrates effectiveness when applied to standard mathematical functions.
Area of Science:
- Numerical Analysis
- Applied Mathematics
- Signal Processing
Background:
- The Hankel transform is crucial in various scientific fields, including physics and engineering.
- Accurate and efficient numerical computation of the Hankel transform is essential for solving complex problems.
- Existing algorithms may face limitations in speed or accuracy for higher-order transforms.
Purpose of the Study:
- To present a novel, improved algorithm for the numerical computation of the nth-order Hankel transform.
- To enhance the efficiency and accuracy of Hankel transform calculations.
- To validate the algorithm's performance using established functions.
Main Methods:
- Development of an improved numerical algorithm specifically designed for the nth-order Hankel transform.
- Rigorous testing and validation of the algorithm using a selection of well-known mathematical functions.
- Comparative analysis with existing numerical methods (if applicable, though not explicitly stated in the abstract).
Main Results:
- The presented algorithm provides accurate numerical computations for the nth-order Hankel transform.
- Successful application and validation of the algorithm across various well-known functions.
- Demonstration of improved performance (accuracy/efficiency) compared to baseline methods (implied by 'improved').
Conclusions:
- The developed algorithm offers a reliable and effective tool for the numerical computation of nth-order Hankel transforms.
- The findings support the utility of this improved algorithm in scientific and engineering applications requiring Hankel transform analysis.
- Further research could explore its application to more complex or specialized functions.