Utilizing Reverse Attention for Enhanced Mitochondria Segmentation in Microscopic Images

Mitochondrial segmentation in microscopic images is a complex task hindered by variations in mitochondrial size, color, texture, and their often ambiguous borders with surrounding tissue. To overcome these obstacles, we adapted Parallel Reverse Attention Network (Pranet), originally developed for precise polyp detection, to the domain of mitochondrial segmentation. Pranet employs Parallel Partial Decoder (PPD) to integrate multi-level features, producing a high-level context map that guides subsequent processing. The model further enhances segmentation precision through a Reverse Attention (RA) module, which adeptly identifies object boundaries by iteratively refining region-boundary interactions. Our approach was thoroughly evaluated on the EPFL dataset, yielding substantial improvements in segmentation accuracy. Additionally, Pranet demonstrated robust generalization and real-time performance, underscoring its suitability for comprehensive microscopic image analysis.

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Publication Details

Published
2025-02-13
DOI
https://doi.org/10.1109/ecce64574.2025.11013970
Primary Topic
Cell Image Analysis Techniques
Type
article
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article

Utilizing Reverse Attention for Enhanced Mitochondria Segmentation in Microscopic Images

Hussain Nyeem, Md Abdul Wahed, Tareque Bashar Ovi, Nomaiya Bashree et al.
Cell Image Analysis Techniques
article

Utilizing Reverse Attention for Enhanced Mitochondria Segmentation in Microscopic Images

Hussain Nyeem, Md Abdul Wahed, Tareque Bashar Ovi, Nomaiya Bashree, Faiaz Hasanuzzaman Rhythm, Ayat Subah Alam
article en

Abstract

Mitochondrial segmentation in microscopic images is a complex task hindered by variations in mitochondrial size, color, texture, and their often ambiguous borders with surrounding tissue. To overcome these obstacles, we adapted Parallel Reverse Attention Network (Pranet), originally developed for precise polyp detection, to the domain of mitochondrial segmentation. Pranet employs Parallel Partial Decoder (PPD) to integrate multi-level features, producing a high-level context map that guides subsequent processing. The model further enhances segmentation precision through a Reverse Attention (RA) module, which adeptly identifies object boundaries by iteratively refining region-boundary interactions. Our approach was thoroughly evaluated on the EPFL dataset, yielding substantial improvements in segmentation accuracy. Additionally, Pranet demonstrated robust generalization and real-time performance, underscoring its suitability for comprehensive microscopic image analysis.

Openalex Percentile: Top 91%
Cell Image Analysis Techniques
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Utilizing Reverse Attention for Enhanced Mitochondria Segmentation in Microscopic Images — Hussain Nyeem, Md Abdul Wahed, et al. · (2025) | TGRS Research Map | TGRS