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Extending the Morphological Hit-or-Miss Transform to Deep Neural Networks
IEEE Transactions on Neural Networks and Learning Systems
|October 6, 2020
Summary
This study enhances deep learning by reformulating the morphological hit-or-miss transform for better geometric analysis. The new approach improves interpretability and classification accuracy compared to standard convolution methods.
Area of Science:
- Computer Vision
- Deep Learning
- Mathematical Morphology
Background:
- Deep learning predominantly uses convolutional architectures.
- Morphology offers an alternative foundation for geometric analysis and interpretability.
- The hit-or-miss transform is a morphological operation considering foreground and background information.
Purpose of the Study:
- To address limitations in existing neural hit-or-miss definitions.
- To formulate an optimization problem for learning the hit-or-miss transform in deep architectures.
- To introduce a novel morphologically inspired generalized convolution.
Main Methods:
- Formulated an optimization problem for the hit-or-miss transform.
- Modeled the non-empty intersection of structuring elements and introduced Don't Care regions.
- Analyzed convolution as a semantic hit-to-miss transform.
- Developed a generalized convolution based on morphological principles.
Main Results:
- The direct encoding hit-or-miss transform offers improved interpretability of learned shapes.
- The proposed generalized convolution outperforms conventional convolution on benchmark datasets.
- Quantitative experiments validate performance on synthetic and real-world data.
Conclusions:
- Morphology provides a valuable alternative to convolution in deep learning.
- The developed hit-or-miss transform enhances shape understanding and classification.
- This work bridges mathematical morphology and deep learning for advanced image analysis.
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