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Un algoritmo híbrido adaptativo de metaheurística para el cáncer de pulmón en la segmentación de imágenes patológicas
Muhammed Faruk Şahin1,2, Ferzat Anka2
1Department of Computer Engineering, Istanbul Atlas University, 34408 Istanbul, Türkiye.
Un nuevo algoritmo híbrido de metaheurística, SCSOWOA, mejora la segmentación de imágenes de histopatología de cáncer de pulmón. Este enfoque mejora la precisión y la eficiencia computacional para el diagnóstico asistido por IA.
Área de la Ciencia:
- Digital pathology
- Medical image analysis
- Computational intelligence
Sus antecedentes:
- Histopathological images are crucial for lung cancer diagnosis and subtyping.
- Automated segmentation of these images is challenging due to high resolution, color diversity, and complexity.
- Accurate segmentation is vital for reliable AI-assisted diagnostic systems.
Objetivo del estudio:
- To develop a novel hybrid metaheuristic approach for multilevel image thresholding.
- To enhance the accuracy and computational efficiency of lung cancer histopathology image segmentation.
- To address the challenges posed by complex image characteristics in automated analysis.
Principales métodos:
- An adaptive hybrid metaheuristic algorithm, SCSOWOA, was developed by integrating Sand Cat Swarm Optimization (SCSO) and Whale Optimization Algorithm (WOA).
- The SCSOWOA algorithm sequentially and adaptively combines SCSO's exploration with WOA's exploitation.
- Performance was evaluated on the LC25000 lung cancer dataset using Peak Signal-to-Noise Ratio (PSNR), Structural Similarity Index Measure (SSIM), and Feature Similarity Index Measure (FSIM).
Principales resultados:
- SCSOWOA achieved high-quality segmentation with average PSNR of 27.9453 dB, SSIM of 0.8048, and FSIM of 0.8361.
- Optimal performance was observed at T=12, yielding SSIM of 0.9340 and FSIM of 0.9542.
- The algorithm demonstrated a 40% improvement in computational efficiency, with an average execution time of 1.3221 s.
Conclusiones:
- SCSOWOA effectively balances exploration and exploitation for robust image segmentation.
- The algorithm provides high accuracy, low variance, and computational efficiency in histopathology image analysis.
- SCSOWOA shows significant potential for AI-assisted lung cancer diagnosis systems.
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