A Comprehensive Brain MRI Image Segmentation System Based on Contourlet Transform and Deep Neural Networks

Algorithms Pub Date : 2024-03-21 DOI:10.3390/a17030130
Navid Khalili Dizaji, Mustafa Doğan
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Abstract

Brain tumors are one of the deadliest types of cancer. Rapid and accurate identification of brain tumors, followed by appropriate surgical intervention or chemotherapy, increases the probability of survival. Accurate determination of brain tumors in MRI scans determines the exact location of surgical intervention or chemotherapy. However, this accurate segmentation of brain tumors, due to their diverse morphologies in MRI scans, poses challenges that require significant expertise and accuracy in image interpretation. Despite significant advances in this field, there are several barriers to proper data collection, particularly in the medical sciences, due to concerns about the confidentiality of patient information. However, research papers for learning systems and proposed networks often rely on standardized datasets because a specific approach is unavailable. This system combines unsupervised learning in the adversarial generative network component with supervised learning in segmentation networks. The system is fully automated and can be applied to tumor segmentation on various datasets, including those with sparse data. In order to improve the learning process, the brain MRI segmentation network is trained using a generative adversarial network to increase the number of images. The U-Net model was employed during the segmentation step to combine the remaining blocks efficiently. Contourlet transform produces the ground truth for each MRI image obtained from the adversarial generator network and the original images in the processing and mask preparation phase. On the part of the adversarial generator network, high-quality images are produced, the results of which are similar to the histogram of the original images. Finally, this system improves the image segmentation performance by combining the remaining blocks with the U-net network. Segmentation is evaluated using brain magnetic resonance images obtained from Istanbul Medipol Hospital. The results show that the proposed method and image segmentation network, which incorporates several criteria, such as the DICE criterion of 0.9434, can be effectively used in any dataset as a fully automatic system for segmenting different brain MRI images.
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基于轮廓变换和深度神经网络的脑磁共振成像综合图像分割系统
脑肿瘤是最致命的癌症之一。快速准确地识别脑肿瘤,然后进行适当的手术治疗或化疗,可以提高患者的生存概率。磁共振成像扫描中对脑肿瘤的准确判断决定了手术干预或化疗的确切位置。然而,由于脑肿瘤在核磁共振成像扫描中的形态各异,要对其进行准确的分割,需要大量的专业知识和准确的图像解读。尽管在这一领域取得了重大进展,但由于担心病人信息的保密性,适当的数据收集仍存在一些障碍,尤其是在医学科学领域。然而,由于没有特定的方法,学习系统和拟议网络的研究论文往往依赖于标准化的数据集。该系统将对抗生成网络组件中的无监督学习与分割网络中的有监督学习相结合。该系统是全自动的,可应用于各种数据集(包括数据稀疏的数据集)上的肿瘤分割。为了改进学习过程,脑磁共振成像分割网络使用对抗生成网络进行训练,以增加图像数量。在分割步骤中采用了 U-Net 模型,以有效地组合剩余区块。在处理和掩膜准备阶段,对抗生成器网络和原始图像获得的每张 MRI 图像的轮廓变换都会产生地面实况。对抗生成器网络可生成高质量图像,其结果与原始图像的直方图相似。最后,该系统通过将剩余区块与 U-net 网络相结合,提高了图像分割性能。我们使用从伊斯坦布尔 Medipol 医院获得的脑磁共振图像对分割效果进行了评估。结果表明,建议的方法和图像分割网络结合了多个标准,如 0.9434 的 DICE 标准,可以有效地用于任何数据集,成为分割不同脑磁共振图像的全自动系统。
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