基于流动性和口罩授权信息的数据驱动covid-19传播预测。

Sandipan Banerjee, Yongsheng Lian
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引用次数: 1

摘要

COVID-19是人类有记载的历史上传播最广泛的大流行疾病之一。人与人之间的相互作用是该病毒最多产的传播方式。世界各国开始发布居家令,并要求在公共场合戴口罩或某种形式的面罩,以减少大多数民众之间的接触,最大限度地减少传播。文献中使用的流行病学模型在假定人群中混合均匀方面存在相当大的缺陷。此外,在这些模型中无法有效地考虑口罩强制令和居家令等缓解战略的影响。在这项工作中,我们提出了一种新的数据驱动方法,使用LSTM(长短期记忆)神经网络模型来形成每日新确诊病例与移动数据的功能映射,这些数据是由手机交通信息和口罩授权信息量化的。这种方法不使用预先定义的方程来预测传播,不做均匀混合假设,并且可以考虑缓解策略的影响。该模型根据来自经过验证的资源的事实数据来学习病毒的传播。使用该模型对美国纽约州(NY)和佛罗里达州(FL)的病例数进行了研究。该模型正确地预测,随着流动性的提高,案件会增加,反之亦然。它进一步预测,如果实施口罩强制令,新病例的发生率将会下降。这两种预测都与领先的医学和免疫学专家的意见一致。该模型还预测,有了口罩强制选项,即使更高的流动性也会比不戴口罩的低流动性减少每日病例。我们还生成结果,并提供RMSE(均方根误差)与基于ARIMA模型的意大利、土耳其、澳大利亚、巴西、加拿大、埃及、日本和英国其他已发表作品的比较。我们的模型报告的RMSE低于所有八个测试国家的基于ARIMA的工作。拟议的模式将为行政部门提供可量化的基础,说明流动性、口罩授权与新确诊病例之间的关系;到目前为止,还没有流行病学模型提供这方面的信息。它能快速而相对准确地预测病例数量,使主管部门能够做出明智的决定,并制定缓解战略和医院资源变化的计划。
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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Data driven covid-19 spread prediction based on mobility and mask mandate information.

COVID-19 is one of the largest spreading pandemic diseases faced in the documented history of mankind. Human to human interaction is the most prolific method of transmission of this virus. Nations all across the globe started to issue stay at home orders and mandating to wear masks or a form of face-covering in public to minimize the transmission by reducing contact between majority of the populace. The epidemiological models used in the literature have considerable drawbacks in the assumption of homogeneous mixing among the populace. Moreover, the effect of mitigation strategies such as mask mandate and stay at home orders cannot be efficiently accounted for in these models. In this work, we propose a novel data driven approach using LSTM (Long Short Term Memory) neural network model to form a functional mapping of daily new confirmed cases with mobility data which has been quantified from cell phone traffic information and mask mandate information. With this approach no pre-defined equations are used to predict the spread, no homogeneous mixing assumption is made, and the effect of mitigation strategies can be accounted for. The model learns the spread of the virus based on factual data from verified resources. A study of the number of cases for the state of New York (NY) and state of Florida (FL) in the USA are performed using the model. The model correctly predicts that with higher mobility the cases would increase and vice-versa. It further predicts the rate of new cases would see a decline if a mask mandate is administered. Both these predictions are in agreement with the opinions of leading medical and immunological experts. The model also predicts that with the mask mandate option even a higher mobility would reduce the daily cases than lower mobility without masks. We additionally generate results and provide RMSE (Root Mean Square Error) comparison with ARIMA based model of other published work for Italy, Turkey, Australia, Brazil, Canada, Egypt, Japan, and the UK. Our model reports lower RMSE than the ARIMA based work for all eight countries which were tested. The proposed model would provide administrations with a quantifiable basis of how mobility, mask mandates are related to new confirmed cases; so far no epidemiological models provide that information. It gives fast and relatively accurate prediction of the number of cases and would enable the administrations to make informed decisions and make plans for mitigation strategies and changes in hospital resources.

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