Flock Optimization Algorithm-Based Deep Learning Model for Diabetic Disease Detection Improvement

Divager Balasubramaniyan, N. Husin, N. Mustapha, N. Sharef, T.N. Mohd Aris
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Abstract

: Worldwide, 422 million people suffer from diabetic disease, and 1.5 million die yearly. Diabetes is a threat to people who still fail to cure or maintain it, so it is challenging to predict this disease accurately. The existing systems face data over-fitting issues, convergence problems, non-converging optimization complex predictions, and latent and predominant feature extraction. These issues affect the system's performance and reduce diabetic disease detection accuracy. Hence, the research objective is to create an improved diabetic disease detection system using a Flock Optimization Algorithm-Based Deep Learning Model (FOADLM) feature modeling approach that leverages the PIMA Indian dataset to predict and classify diabetic disease cases. The collected data is processed by a Gaussian filtering approach that eliminates irrelevant information, reducing the overfitting issues. Then flock optimization algorithm is applied to detect the sequence; this process is used to reduce the convergence and optimization problems. Finally, the recurrent neural approach is applied to classify the normal and abnormal features. The entire research implementation result is carried out with the help of the MATLAB program and the results are analyzed with accuracy, precision, recall, computational time, reliability scalability, and error rate measures like root mean square error, mean square error, and correlation coefficients. In conclusion, the system evaluation result produced 99.23% accuracy in predicting diabetic disease with the metrics.
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基于羊群优化算法的深度学习模型用于糖尿病疾病检测改进
:全世界有 4.22 亿人患有糖尿病,每年有 150 万人死亡。糖尿病威胁着仍无法治愈或维持的人群,因此准确预测这种疾病具有挑战性。现有系统面临着数据过度拟合问题、收敛问题、非收敛优化复杂预测以及潜在和主要特征提取等问题。这些问题影响了系统的性能,降低了糖尿病疾病检测的准确性。因此,研究目标是利用基于羊群优化算法的深度学习模型(FOADLM)特征建模方法,创建一个改进的糖尿病疾病检测系统,利用 PIMA 印度数据集对糖尿病疾病病例进行预测和分类。收集到的数据通过高斯滤波方法进行处理,以消除无关信息,减少过拟合问题。然后采用成群优化算法检测序列;这一过程用于减少收敛和优化问题。最后,采用循环神经方法对正常和异常特征进行分类。整个研究实施结果是在 MATLAB 程序的帮助下完成的,并对结果进行了准确度、精确度、召回率、计算时间、可靠性可扩展性以及均方根误差、均方误差和相关系数等误差率指标的分析。总之,系统评估结果显示,该指标预测糖尿病疾病的准确率为 99.23%。
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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来源期刊
Journal of Computer Science
Journal of Computer Science Computer Science-Computer Networks and Communications
CiteScore
1.70
自引率
0.00%
发文量
92
期刊介绍: Journal of Computer Science is aimed to publish research articles on theoretical foundations of information and computation, and of practical techniques for their implementation and application in computer systems. JCS updated twelve times a year and is a peer reviewed journal covers the latest and most compelling research of the time.
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