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Energy-Efficient Adaptive Sensing Technique for Smart Healthcare in Connected Healthcare Systems

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Innovations in Computational Intelligence and Computer Vision

Abstract

Nowadays, keeping good and strong health is one of the main concerns of the government’s health monitoring systems. These systems are based on the data gathered by biosensors deployed on the body of the patients. One of the main challenges for health-based sensing applications is the big and heterogenic gathered data by these biomedical sensors. Since the biosensors have limited resources in terms of memory, energy and computation and they transmit a large amount of data periodically, therefore, it is important to reduce the sent data to save energy while preserving the accuracy of data at the coordinator. In this paper, an energy-efficient adaptive sensing technique (EASeT) for Smart Healthcare in connected healthcare systems is proposed. EASeT is executed at each biosensor. It works into rounds. The round contains two periods. It consists of two steps: detection of emergency and biosensor sensing adaptation. First, EASeT employed National Early Warning Score (NEWS) to eliminate redundant medical-sensed data before transmitting them to the coordinator. Second, the adaptive sensing rate algorithm is applied after each two periods to adjust the sensing rate according to the situation of the patient for two consecutive periods. The simulation results are achieved based on real sensed data of patients show that the proposed EASeT technique can reduce the transmitted data and decrease the consumed energy while maintaining the suitable accuracy of data at the coordinator in comparison with an existing approach.

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Correspondence to Ali Kadhum Idrees .

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Alhussein, D.A., Kadhum Idrees, A., Harb, H. (2022). Energy-Efficient Adaptive Sensing Technique for Smart Healthcare in Connected Healthcare Systems. In: Roy, S., Sinwar, D., Perumal, T., Slowik, A., Tavares, J.M.R.S. (eds) Innovations in Computational Intelligence and Computer Vision . Advances in Intelligent Systems and Computing, vol 1424. Springer, Singapore. https://doi.org/10.1007/978-981-19-0475-2_22

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