Imaging Segmentation of Brain Tumors Based on the Modified U-net Method

Brain tumor segmentation in medical image analysis is a challenging task. Deep learning techniques have recently shown promise in resolving a variety of computer vision problems, such as semantic segmentation and image classification. Brain MRI (magnetic resonance imaging) requires precise brain image segmentation for effective, rapid diagnosis and treatment planning. However, it is quite difficult to manually segment the brain image rapidly and accurately in low-quality, noisy images. This paper proposes a U-Net and combined attention mechanism-based method. This research enhances the segmentation of images of tumors in the brain using modified U-net. Traditional U-net segmentation techniques are still widely used in the medical field, but they have a number of limitations when dealing with small targets and fuzzier boundaries. To address this issue, we made the following modifications to U-net: We propose attention mechanisms to assist the network in concentrating on important regions. The multiscale feature fusion strategy improves the efficacy of network segmentation at various scales. Cross-entropy loss function and data augmentation improve the performance of the network further. Our method was validated using the Brats2019 dataset. The experimental results demonstrate that our proposed methodology exhibits superior speed and efficiency compared to existing techniques in the context of brain image segmentation. The dice coefficients for the multiple branch TS-U-net model were 0.876, 0.868, and 0.814 in the tumor subregions of WT, TC, and ET, respectively. This exemplifies the feasibility and potential of our methodology for the segmentation of medical images.

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Publication Details

Journal
Information Technology And Control
Published
2024-12-21
DOI
https://doi.org/10.5755/j01.itc.53.4.37719
Citations
10
Primary Topic
Brain Tumor Detection and Classification
Type
article
Field-Weighted Citation Impact
2.47

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article

Imaging Segmentation of Brain Tumors Based on the Modified U-net Method

Noor Fazilla Abd Yusof, Hea Choon Ngo, Xiaohan Wang, Yajie Zhang et al.
10 citations
Information Technology And Control
Brain Tumor Detection and Classification
2.47
article

Imaging Segmentation of Brain Tumors Based on the Modified U-net Method

Noor Fazilla Abd Yusof, Hea Choon Ngo, Xiaohan Wang, Yajie Zhang, Yifan Zhang
article en
10 citations

Abstract

Brain tumor segmentation in medical image analysis is a challenging task. Deep learning techniques have recently shown promise in resolving a variety of computer vision problems, such as semantic segmentation and image classification. Brain MRI (magnetic resonance imaging) requires precise brain image segmentation for effective, rapid diagnosis and treatment planning. However, it is quite difficult to manually segment the brain image rapidly and accurately in low-quality, noisy images. This paper proposes a U-Net and combined attention mechanism-based method. This research enhances the segmentation of images of tumors in the brain using modified U-net. Traditional U-net segmentation techniques are still widely used in the medical field, but they have a number of limitations when dealing with small targets and fuzzier boundaries. To address this issue, we made the following modifications to U-net: We propose attention mechanisms to assist the network in concentrating on important regions. The multiscale feature fusion strategy improves the efficacy of network segmentation at various scales. Cross-entropy loss function and data augmentation improve the performance of the network further. Our method was validated using the Brats2019 dataset. The experimental results demonstrate that our proposed methodology exhibits superior speed and efficiency compared to existing techniques in the context of brain image segmentation. The dice coefficients for the multiple branch TS-U-net model were 0.876, 0.868, and 0.814 in the tumor subregions of WT, TC, and ET, respectively. This exemplifies the feasibility and potential of our methodology for the segmentation of medical images.

Information Technology And ControlVol. 53(4)
Wenzhou Medical University (CN), Technical University of Malaysia Malacca (MY), Wenzhou Central Hospital (CN)
Wenzhou Municipal Science and Technology Bureau
Openalex Percentile: Top 10%
Brain Tumor Detection and Classification
2.47
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