A Survey on Analysis of Genetic Diseases Using Machine Learning Techniques

B. Dhanalaxmi, K. Anirudh, G. Nikhitha, R. Jyothi
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引用次数: 1

Abstract

The approach of new technological developments in the genetic disease repository has facilitated genetic disease treatment. In the post-genomic time gene detection, which causes genetically excessive diseases, is one of the greatest deterrent tasks. Complex diseases are frequently very heterogeneous and make biological markers difficult to identify. Markers commonly depend on the Machine Learning Algorithms to define, but their success completely depends on the quality and dimensions of the data present. In the machine learning area, computers are promised to support people and analyze large and complex data systems primarily for the production of practically enhanced algorithms. A supervised machine learning methodology has been developed to predict complex genes that cause disease and experiment with the developed algorithm to improve and identify genetic classifications that engage in complex diseases. Genetic Disease Analyzer (GDA) was de veloped using machine learning using the Principal Component Analysis (PCA), Random forest, Naive Bayes and Decision Tree algorithms and the results were compared. The accuracy of 98.79% and sensitivity of 98.67% for the GEO data set is provided for the GDA model. The results of machine learning approaches were examined and their practical applications were discussed in the study of genetic and genomic data.
利用机器学习技术分析遗传病的研究综述
遗传疾病储存库的新技术发展促进了遗传疾病的治疗。在后基因组时代,基因检测是最大的威慑任务之一,它会导致遗传过度疾病。复杂的疾病往往是非常异质的,使生物标记难以识别。标记通常依赖于机器学习算法来定义,但它们的成功完全取决于当前数据的质量和维度。在机器学习领域,计算机被承诺支持人们并分析大型复杂的数据系统,主要是为了产生实际增强的算法。一种有监督的机器学习方法已经开发出来,用于预测导致疾病的复杂基因,并对开发的算法进行实验,以改进和识别导致复杂疾病的遗传分类。遗传疾病分析仪(GDA)采用主成分分析(PCA)、随机森林、朴素贝叶斯和决策树算法进行机器学习开发,并对结果进行比较。GDA模型对GEO数据集的精度为98.79%,灵敏度为98.67%。研究了机器学习方法的结果,并讨论了它们在遗传和基因组数据研究中的实际应用。
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