2020
DOI: 10.1109/mce.2020.2992034
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EasyBand: A Wearable for Safety-Aware Mobility During Pandemic Outbreak

Abstract: COVID-19 (Corona Virus Disease 2019) is a pandemic which has been spreading exponentially around the globe. Many countries adopted stay-athome or lockdown policies to control its spreading. However, prolonged stay-at-home may cause worse effects like economical crises, unemployment, food scarcity, and mental health problems of individuals. This article presents a smart consumer electronics solution to facilitate safe and gradual opening after stay-at-home restrictions are lifted. An Internet of Medical Things … Show more

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Cited by 103 publications
(66 citation statements)
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References 8 publications
(7 reference statements)
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“…Therefore in this paper, we are proposing a MEC based edge computing approach to satisfy the intrinsic technological requisites demanded by the novel contact-less and remote medical procedures for treating COVID-19 patients within a medical facility. This work extends the reach of MEC towards adaptability established by [8], assures the claims proposed by [9], [10] to mitigate COVID-19, and validates the utilization of edge computing in IoT systems as conceptualized in [11], [12] with MEC; while improving the feasibility of smart health solutions proposed in [2], [13], [14]. The Section II introduces three futuristic use cases that effectively establish contact-less operation, while the methodology to realize these initiatives with MEC is presented in Section III.…”
Section: Introductionsupporting
confidence: 68%
“…Therefore in this paper, we are proposing a MEC based edge computing approach to satisfy the intrinsic technological requisites demanded by the novel contact-less and remote medical procedures for treating COVID-19 patients within a medical facility. This work extends the reach of MEC towards adaptability established by [8], assures the claims proposed by [9], [10] to mitigate COVID-19, and validates the utilization of edge computing in IoT systems as conceptualized in [11], [12] with MEC; while improving the feasibility of smart health solutions proposed in [2], [13], [14]. The Section II introduces three futuristic use cases that effectively establish contact-less operation, while the methodology to realize these initiatives with MEC is presented in Section III.…”
Section: Introductionsupporting
confidence: 68%
“…The research conducted by Rahman et al (2020) revealed that real-time data collected with IoT-based health devices were used to predict the COVID-19 outbreak with a confidence level of more than 80%. Also, the study conducted by Tripathy et al (2020) Fig. 7 Digital face shield for the mining industry to manage and control the impacts of COVID-19, source: Das (2020) Fig.…”
Section: Smart Health Bandsmentioning
confidence: 99%
“…For example, when a tagged user A emits a wireless signal, the receiving users in proximity could first estimate the distance based on a number of available characteristics as presented in [14]. In case the distance is lower than a predefined threshold, e.g., the value is lower than 2 m, as the safety threshold adopted by many research papers [2], [15], [16], then the receiving user will store the anonymized ID from user tagged user and the corresponding timestamps. Therefore, a ledger of neighboring users could be created per node.…”
Section: Contact-tracing Applicationmentioning
confidence: 99%
“…Undoubtedly, P p depends on several other parameters, which are described in Fig. 2: i) the joint probability of two users found in vicinity of each other to use the same contact tracing application, e.g., with independent users and individual probability P u per user, the joint probability becomes P u *P u , ii) the false alarm P f a and misdetection P md probability of estimating that two users are within infectious distance from each other, e.g., at less than 2 m for more than 15' [2], [15], [16]), iii) the probability P c that the connectivity to the cloud server works properly, e.g., device of user A has access to long-range wireless connectivity to the server storing information about the temporary IDs of COVID-19 positive persons during their period of being infectious, and iv) the illness probability P i (i.e., the actual probability that user B gets the disease if (s)he was within infectious distance from a COVID-19 positive user A for a duration exceeding a threshold).…”
Section: A Technology Chain and Associated Sources Of Errors In A Wimentioning
confidence: 99%
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