Analysis of Mineral Density in Bone Using Deep Learning and Smart Tracking System

D. Arulselvam, T. Kumar, T. Sheela, S. Premalatha, K. Srividya, S. Nandhini
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引用次数: 1

Abstract

Arthritis is the world one of the most worst immuno deficiency disease. It mainly invades joints of the bone in the body of humans. This deficiency analysis obtained from the images of the joints manually, is a chronic process and it requires experts to analyze the images obtain from the scan periodically which ultimately leads to delay in time and increase in cost. In order to analyze the problem effectively it is required to identify the mineral density of the bone BMD (Bone Mineral Density), a prime factor for identifying the disease in the bone and the risk level of fracture. The purpose of the work is to automate the process of analyzing density of the mineral present in the bone thermal images. The proposed detection model involves phases such as Image pre-processing, segmenting the portion of interest, extracting the features from the region segmented and classifying the abnormality. Initially the input thermal images is processed and filtered using two steps namely, de-noising the image using Anisotropic diffusion filter followed by enhancing technique using Contrast Limited adaptive histogram equalization-CLAHE. Next to image enhancement is segmentation, fuzzy C means is adopted for segmenting the affected portion. Once the portion is segmented, first order gray level features such a mean, median, energy, correlation entropy, variance and area are extracted and classified as normal or abnormal using deep neural network. Finally the output is fed to the controller and communicated remotely to the patients using GSM module.
基于深度学习和智能跟踪系统的骨骼矿物质密度分析
关节炎是世界上最严重的免疫缺陷疾病之一。它主要侵入人体的骨骼关节。这种由人工获得的关节图像的缺陷分析是一个长期的过程,需要专家周期性地分析从扫描中获得的图像,最终导致时间延迟和成本增加。为了有效地分析这一问题,需要识别骨骼骨密度(BMD)的矿物质密度,这是识别骨骼疾病和骨折风险水平的主要因素。这项工作的目的是自动化分析骨骼热图像中存在的矿物质密度的过程。该检测模型包括图像预处理、感兴趣部分分割、从分割区域提取特征和对异常进行分类等阶段。首先,对输入的热图像进行两步处理和滤波,即使用各向异性扩散滤波器对图像进行降噪,然后使用对比度有限自适应直方图均衡化- clahe增强技术。图像增强之后是分割,采用模糊C均值对影响部分进行分割。对部分进行分割后,提取均值、中值、能量、相关熵、方差、面积等一阶灰度特征,并利用深度神经网络将其分类为正常或异常。最后将输出信号送入控制器,并通过GSM模块与患者进行远程通信。
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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