基于果蝇UNet的自动脑肿瘤分割框架

Ravi Boda, Reni K. K Cherian, Vinit Kumar
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引用次数: 0

摘要

由于图像的复杂性,脑图像的分析和分割是医学图像处理中最困难的任务。此外,MRI图像主要用于预测不同的脑部疾病;如果图像比较复杂,疾病预测的准确率很低。为了克服这一问题,目前的研究计划设计一种新的基于果蝇的UNet (FFbU)框架来准确地检测肿瘤。此外,在UNet池化模块中对果蝇的适应度进行了升级,趋于获得最好的结果。最初,从网络源收集标准数据集并训练到系统。因此,在FFbU的初级层中去除训练误差,然后将清除错误的数据输入到UNet密集层中进行肿瘤检测和分割。最后,在MATLAB环境中执行了所提出的模型,并从准确率、召回率、精度、骰子和Jaccard等方面对所设计的FFbU模型的熟练程度进行了评估。此外,计划中的新型FFbU模型具有预测和分割不同肿瘤类型的能力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
An automated brain tumor segmentation framework using a novel fruit fly UNet
Brain image analysis and segmentation are the most difficult tasks in medical image processing because of image complexity. Moreover, MRI images are mostly utilized to predict different brain‐based diseases; if the images are complex, the disease prediction accuracy is very low. To overcome this problem, the current research has planned to design a novel fruit fly‐based UNet (FFbU) framework to detect the Tumor accurately. Moreover, the fitness of the fruit fly was upgraded in the UNet pooling module that has tended to gain the finest results. Initially, the standard datasets were gathered from the net source and trained to the system. Consequently, the training error is removed in the primary layer of FFbU then the error‐cleared data is entered into the UNet dense layer for tumor detection and segmentation. Finally, the proposed model is executed in a MATLAB environment, and the proficiency of the designed FFbU model is estimated in terms of accuracy, recall, precision, Dice, and Jaccard. In addition, the planned novel FFbU model has the ability to predict and segment different tumor types.
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