D. Sindhura, R. Pai, Shyamasunder N. Bhat, M. M. Manohara Pai
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引用次数: 0
Abstract
Orthopaedicians need the assistance of the Deep Learning (DL) model for easy Vertebral Column Fracture Type identification. Deep Learning models require large datasets. Due to the non-availability of large annotated data sets, the DL model needs intensive data augmentation methods. In this proposed research work, Progressive Growing Generative Adversarial Networks (PGGANs) are used to generate synthetic Vertebral Column Fracture (VCF) CT images. The synthetic CT images of VCF generated by PGGANs are high resolution, realistic yet wholly different from the real images. The PGGANs is a multi-stage generative model that generates 512 X 512 CT images that increases the accuracy of the VCF Type identification system. A total of375 vertebral column CT images were utilized for training the model, which were collected from the Spine Clinic, Orthopaedics Department, Kasturba Medical College, Manipal, Manipal Academy of Higher Education, Manipal. Among 375 images, 275 Chance fractures and 100 posterior tension band disruption fracture images were present. To analyse the effect of PGGAN augmentation on VCF type identification, lately VGG16 pre-trained model is implemented. The VGG16 model with PGGAN augmentation got an accuracy of 87.01%, which is more when compared to the model without augmentation. In conclusion, PGGAN generated VCF images are realistic and can be used for data augmentation without privacy restrictions and in VCF type identification DL models for increased performance.
骨科医生需要深度学习(DL)模型的帮助来轻松识别脊柱骨折类型。深度学习模型需要大型数据集。由于不可用的大型标注数据集,深度学习模型需要密集的数据增强方法。在本研究中,使用渐进式生长生成对抗网络(PGGANs)生成合成脊柱骨折(VCF) CT图像。PGGANs生成的VCF合成CT图像分辨率高,逼真,但与真实图像完全不同。PGGANs是一种多阶段生成模型,可生成512 X 512 CT图像,提高了VCF类型识别系统的准确性。用于训练模型的脊柱CT图像共375张,这些图像收集于脊柱诊所、骨科、Kasturba医学院、马尼帕尔高等教育学院、马尼帕尔。在375张图像中,有275张Chance骨折和100张后张力带断裂。为了分析PGGAN增强对VCF类型识别的影响,最近实现了VGG16预训练模型。经PGGAN增强的VGG16模型的准确率为87.01%,高于未增强的模型。总之,PGGAN生成的VCF图像是真实的,可以用于不受隐私限制的数据增强,也可以用于VCF类型识别DL模型,以提高性能。