LW-CNN-based extraction with optimized encoder-decoder model for detection of diabetic retinopathy

B. Gunapriya, T. Rajesh, Arunadevi Thirumalraj, Manjunatha B
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Abstract

In the field of computer vision, automatic diabetic retinopathy (D.R.) screening is a well-established topic of study. It’s tough since the retinal vessels are hardly distinguishable from the backdrop in the fundus picture, and the structure is complicated. To learn data representations at numerous levels of abstraction, deep learning (DL) allows for the development of computational representations with several processing layers. Small, inconspicuous lesions generated by the disorder are hard to detect since they are tucked away beneath the eye’s structure. In this research, a lightweight convolutional neural network (LW-CNN) was used to extract structures from images of blood vessels, and different preprocessing methods were employed. The features are extracted, and then D.R. is classified using the suggested learning technique, which includes an encoder, dense branch. Effective categorization relies on the usage of multi-scale information collected from various nodes in the network. Grasshopper’s optimisation algorithm (GHOA) is used to fine-tune the recommended classifier’s hyper-parameters. The DIARETDB1 benchmark dataset is assessed using 80% training data and 20% testing data to get a diagnosis of the disease’s severity. The proposed model improved D.R. image classification with accuracy of 0.992 for DIARETDB1 database and 0.981 for APTOS 2019 blindness detection dataset. The state-of-the-art models for D.R. dataset images only achieved less accuracy and precision as compared with the proposed model.
基于 LW-CNN 的提取与优化编码器-解码器模型,用于检测糖尿病视网膜病变
在计算机视觉领域,自动糖尿病视网膜病变(D.R.)筛查是一个成熟的研究课题。由于视网膜血管在眼底照片中很难与背景区分开来,而且结构复杂,因此难度很大。为了学习多个抽象层次的数据表示,深度学习(DL)允许开发具有多个处理层的计算表征。由眼底病变引起的微小、不明显的病变很难被检测到,因为这些病变隐藏在眼底结构之下。在这项研究中,使用了轻量级卷积神经网络(LW-CNN)从血管图像中提取结构,并采用了不同的预处理方法。提取特征后,使用建议的学习技术(包括编码器、密集分支)对 D.R. 进行分类。有效的分类依赖于使用从网络中不同节点收集到的多尺度信息。草蜢优化算法(GHOA)用于微调推荐分类器的超参数。使用 80% 的训练数据和 20% 的测试数据对 DIARETDB1 基准数据集进行评估,以获得疾病严重程度的诊断结果。所提出的模型改进了 D.R. 图像分类,在 DIARETDB1 数据库中的准确率为 0.992,在 APTOS 2019 失明检测数据集中的准确率为 0.981。与提出的模型相比,最先进的 D.R. 数据集图像模型的准确率和精确度都较低。
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