Abstract
Diabetic macular edema (DME) is a leading cause of vision
loss worldwide. Optical Coherence Tomography (OCT) serves as a widely
accepted imaging tool for diagnosing DME due to its non-invasiveness
and high resolution cross-sectional view. Clinical evaluation of Hyperreflective
Foci (HRF) in OCT contributes to understanding the origins
of DME and predicting disease progression or treatment efficacy. However,
limited information and a significant imbalance between foreground
and background in HRF present challenges for its precise segmentation
in OCT images. In this study, we propose an attention mechanism-based
MUlti-dimensional Semantic Enhancement Network (MUSE-Net) for
HRF segmentation to address these challenges. Specifically, our MUSENet
comprises attention-based multi-dimensional semantic information
enhancement modules and class-imbalance-insensitive joint loss. The adaptive
region guidance module softly allocates regional importance in slice,
enriching the single-slice semantic information. The adjacent slice guidance
module exploits the remote information across consecutive slices,
enriching the multi-dimensional semantic information. Class-imbalanceinsensitive
joint loss combines pixel-level perception optimization with
image-level considerations, alleviating the gradient dominance of the
background during model training. Our experimental results demonstrate
that MUSE-Net outperforms existing methods over two datasets
respectively. To further promote the reproducible research, we made the
code and these two datasets online available.
loss worldwide. Optical Coherence Tomography (OCT) serves as a widely
accepted imaging tool for diagnosing DME due to its non-invasiveness
and high resolution cross-sectional view. Clinical evaluation of Hyperreflective
Foci (HRF) in OCT contributes to understanding the origins
of DME and predicting disease progression or treatment efficacy. However,
limited information and a significant imbalance between foreground
and background in HRF present challenges for its precise segmentation
in OCT images. In this study, we propose an attention mechanism-based
MUlti-dimensional Semantic Enhancement Network (MUSE-Net) for
HRF segmentation to address these challenges. Specifically, our MUSENet
comprises attention-based multi-dimensional semantic information
enhancement modules and class-imbalance-insensitive joint loss. The adaptive
region guidance module softly allocates regional importance in slice,
enriching the single-slice semantic information. The adjacent slice guidance
module exploits the remote information across consecutive slices,
enriching the multi-dimensional semantic information. Class-imbalanceinsensitive
joint loss combines pixel-level perception optimization with
image-level considerations, alleviating the gradient dominance of the
background during model training. Our experimental results demonstrate
that MUSE-Net outperforms existing methods over two datasets
respectively. To further promote the reproducible research, we made the
code and these two datasets online available.
Original language | English |
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Title of host publication | Proceedings of the 26th International Conference on Medical Image Computing and Computer Assisted Intervention (MICCAI) |
Publisher | Springer |
ISBN (Electronic) | 978-3-031-72378-0 |
ISBN (Print) | 978-3-031-72377-3 |
DOIs | |
Publication status | Published - 3 Oct 2024 |
Event | 27th INTERNATIONAL CONFERENCE ON MEDICAL IMAGE COMPUTING AND COMPUTER ASSISTED INTERVENTION: MICCAI 2024 - MARRAKESH, Morocco Duration: 6 Oct 2024 → 10 Oct 2024 |
Conference
Conference | 27th INTERNATIONAL CONFERENCE ON MEDICAL IMAGE COMPUTING AND COMPUTER ASSISTED INTERVENTION |
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Country/Territory | Morocco |
City | MARRAKESH |
Period | 6/10/24 → 10/10/24 |
Keywords
- Hyperreflective foci
- OCT
- Attention
- Segmentation
Research Centres
- Centre for Intelligent Visual Computing Research
- Data and Complex Systems Research Centre