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Design of two-dimensional recursive filters by using neural networks
1Mixed-Signal Microelectronics Group, Department of Electrical Engineering, Eindhoven University of Technology, 5600 MB Eindhoven, The Netherlands. v.mladenov@tue.nl
IEEE Transactions on Neural Networks
|February 6, 2008
Summary
A novel neural network approach simplifies designing two-dimensional (2-D) recursive digital filters. This method transforms filter design into a solvable minimization problem, offering advantages over existing techniques.
Area of Science:
- Digital Signal Processing
- Machine Learning Applications
- Filter Design
Background:
- Two-dimensional (2-D) recursive digital filters are essential in image and signal processing.
- Existing design methods for these filters can be complex and computationally intensive.
- Developing efficient and accurate filter design techniques remains an active research area.
Purpose of the Study:
- To introduce a new design methodology for 2-D recursive digital filters.
- To leverage neural networks for solving the filter design problem.
- To demonstrate the efficacy and advantages of the proposed method.
Main Methods:
- The core of the method involves formulating the 2-D filter design as a constrained minimization problem.
- A suitable neural network is employed to find the solution to this minimization problem through convergence.
- The proposed technique is validated using a numerical example.
Main Results:
- The neural network-based method successfully designed the 2-D recursive digital filter.
- Performance comparison with existing methods on the same numerical example was conducted.
- The proposed method demonstrated advantages over previously published techniques.
Conclusions:
- The presented neural network-based design method offers a viable and potentially superior alternative for 2-D recursive digital filters.
- The approach simplifies the design process by converting it into a solvable optimization problem.
- Further research can explore the scalability and applicability of this method to more complex filter structures.
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