Brain Tumor Segmentation and Tumor Prediction Using 2D-VNet Deep Learning Architecture

D. Rastogi, P. Johri, Varun Tiwari
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引用次数: 3

Abstract

Segmentation of brain tumors is a difficult task because of the enormous variation in the intensity and size of gliomas. The tumor type Glioma is the highly prevalent malignant tumor in the brain, with a high death rate and a morbidity rate of more than 3%. In the clinic, MRI is the most common way of detecting brain cancers. Automatic segmentation is difficult because of the overlapping area between the intensity distributions of healthy, enhancing, non-enhancing and edema regions. Segmenting brain tumour areas utilising multi-modal MRI scan pictures can help with treatment observation, post-diagnosis monitoring, and patient impacts evaluation. Manual segmentation, on the other hand, is still the most common procedure in clinical brain tumour segmentation, which takes time and results in significant performance variations across operators. For this reason, the development of accurate and consistent automatic segmentation technology is required. Convolutional neural networks (CNNs), have shown promise in brain tumor segmentation due to their powerful learning capacity. This article suggests an 2D-VNet model for brain tumor segmentation and enhancing the prediction. The presented model was successfully segmented brain tumors and predict the result in enhancing tumor and real enhancing tumor. Experiment with BRATS2020 benchmarks dataset, we found that Loss (for Training: .0025, Testing: .0032 and Validation: .0031), Dice Coefficient (for Training: .9974, Testing: .9967 and Validation: .9968) and Accuracy (for Training: .9971 Testing: .9963 and Validation: .9964).
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基于2D-VNet深度学习架构的脑肿瘤分割和肿瘤预测
由于胶质瘤在强度和大小上的巨大差异,脑肿瘤的分割是一项困难的任务。胶质瘤是脑肿瘤中高发的恶性肿瘤,死亡率高,发病率在3%以上。在临床上,核磁共振成像是检测脑癌最常用的方法。由于健康区、增强区、非增强区和水肿区的强度分布存在重叠区域,自动分割比较困难。利用多模态MRI扫描图像分割脑肿瘤区域有助于治疗观察、诊断后监测和患者影响评估。另一方面,人工分割仍然是临床脑肿瘤分割中最常见的程序,这需要时间,并且导致操作员之间的显着性能差异。因此,需要开发准确、一致的自动分割技术。卷积神经网络(cnn)由于其强大的学习能力,在脑肿瘤分割中显示出前景。本文提出了一种用于脑肿瘤分割和增强预测的2D-VNet模型。该模型成功地对脑肿瘤进行了分割,并对增强肿瘤和真实增强肿瘤的结果进行了预测。对BRATS2020基准数据集进行实验,我们发现损失(训练:0.0025,测试:0.0032,验证:0.0031),骰子系数(训练:0.9974,测试:0.9967,验证:0.9968)和准确性(训练:0.9971,测试:0.9963,验证:0.9964)。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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