Comparative Analysis of Epidemic Alert System using Machine Learning for Dengue and Chikungunya

Aabhas Dhaka, Prabhishek Singh
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引用次数: 11

Abstract

The Rapid spread of a disease is known as an epidemic. The catastrophe brought by an epidemic not only effects the people of an area, but also brings about a lot of distress in every sector of social strata. An epidemic alerting system has a potential to carve the path how medical surveillance could become more efficient. The epidemic causing diseases are usually vector borne. The diseases are spread by pathogens present in these vectors. An epidemic alerting system could predict how the weather conditions and several other factors effect the growth and propagation of these vectors. The weather conditions could be predicted using the high-end instruments and satellites currently available. Using this prediction, we could forecast the next targets of the epidemic. To implement this epidemic alert system, four algorithms are used namely Random Forest Regression, Decision Tree Regression, Support Vector Regression and Multiple Linear Regression. For dengue, the state wise cases data of the year 2013 to 2017 has been used in the system while for chikungunya the data used is of the year 2013 to 2016. This dataset has been downloaded from a government website, i.e., https://www.data.gov.in/. For the case of dengue, the model has been trained on the data of the year 2013 to 2016 and predictions of the year 2017 have been done. On the other hand, the model has been trained on the data of the year 2013 to 2015 and predictions for the year 2017 have been made regarding Chikungunya. At last, a contrastive analysis has been made on the four algorithms used for both the diseases.
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基于机器学习的登革热和基孔肯雅热疫情预警系统的比较分析
疾病的迅速传播被称为流行病。流行病带来的灾难不仅影响到一个地区的人民,而且给社会各阶层带来了很大的痛苦。流行病警报系统有可能开辟一条道路,使医疗监测变得更有效。引起流行病的疾病通常是病媒传播的。这些疾病通过存在于这些媒介中的病原体传播。流行病警报系统可以预测天气条件和其他几个因素如何影响这些病媒的生长和繁殖。可以利用目前可用的高端仪器和卫星来预测天气状况。利用这一预测,我们可以预测该流行病的下一个目标。为实现该疫情预警系统,采用了随机森林回归、决策树回归、支持向量回归和多元线性回归四种算法。对于登革热,系统中使用了2013年至2017年的州病例数据,而对于基孔肯雅病,系统中使用了2013年至2016年的数据。这个数据集是从政府网站下载的,即https://www.data.gov.in/。就登革热而言,该模型已根据2013年至2016年的数据进行了训练,并对2017年进行了预测。另一方面,该模型已根据2013年至2015年的数据进行了训练,并对2017年的基孔肯雅热进行了预测。最后,对两种疾病的四种诊断算法进行了对比分析。
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