Md. Imdadul Haque Emon, Khondoker Nazia Iqbal, Istinub Azad, Amena Akter Aporna, Nibraj Safwan Amlan, M. S. Islam, Rafeed Rahman
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引用次数: 0
摘要
颅内脑出血是一个非常常见的问题,死亡率很高,如果不能及时采取必要的措施,往往会危及生命。出血性患者需要进行脑部CT扫描,为了采取进一步措施,应该立即检查扫描结果。为此,我们提出了一种使用混合机器学习方法的CAD系统,该系统将帮助放射科医生以更稳健的方式诊断颅内出血。我们使用VGG16和VGG19模型进行特征提取,然后使用这些特征训练随机森林(RF)和多层感知器(MLP)模型。在我们的研究中,我们收集了一个CT脑图像数据集,其中包含2501张图像,包括五种出血类型:脑室内、脑实质内、蛛网膜下、硬膜外和硬膜下。在训练我们的模型后,使用VGG16-MLP模型对CT扫描图像的脑出血分类的总体准确率为97.24%,使用VGG19-MLP模型的准确率为97.02%。对于每个出血类别,我们的最佳方法与之前的最佳方法(来自我们审查的论文)的比较结果如下:硬膜外:VGG19-MLP (0.97) vs. YOLOv4(0.98),实质内:VGG16-MLP (0.95) vs. YOLOv4(0.95),脑室内:VGG19-MLP (0.90) vs. DB-RF(0.97),蛛网膜下腔:VGG19-MLP (0.94) vs. DB-RF(0.90),硬膜下:VGG16-MLP (1.00) vs. YOLOv4(0.95)。
Intracranial Brain Hemorrhage Diagnosis and Classification: A Hybrid Approach
Intracranial brain hemorrhage is a very common problem with a high mortality rate and often can be life-threatening if necessary steps cannot be taken on time. Patients with hemorrhagic cases need to undergo a CT scan of the brain and for taking further steps, the scans should be examined immediately. For this purpose, we proposed a CAD system using a hybrid machine-learning approach which will help radiologists to diagnose intracranial hemorrhage in a more robust way. We used VGG16 and VGG19 models for feature extraction and then trained random forest (RF) and multilayer perceptron (MLP) models with these features. For our research, we have collected a CT brain image dataset that contains 2,501 images with five hemorrhage classes: intraventricular, intraparenchymal, subarachnoid, epidural, and subdural. After training our models it resulted in an overall accuracy of 97.24% using the VGG16-MLP model and 97.02% accuracy using the VGG19-MLP model for classifying brain hemorrhage from CT scans images. A comparative result of our best approach vs. the previous best approach (from our reviewed papers) for each hemorrhage class is as follows; epidural: VGG19-MLP (0.97) vs. YOLOv4 (0.98), intraparenchymal: VGG16-MLP (0.95) vs. YOLOv4 (0.95), intraventricular: VGG19-MLP (0.90) vs. DB-RF (0.97), subarachnoid: VGG19-MLP (0.94) vs. DB-RF (0.90), and subdural: VGG16-MLP (1.00) vs. YOLOv4 (0.95).