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A cluster based charging schedule for wireless rechargeable sensor networks using gravitational search algorithm

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Abstract

Wireless sensor networks have a short network lifetime due to limited battery life. External power supplies are utilised to extend the life of sensor nodes. The previous works of charging scheduling lack charging efficiency, resulting in early node energy exhaustion. There are certain limitations in designing the scheduling path when sensor nodes consume diversified energy. Previous charging schedule approaches or charging path designs aimed to reduce the mobile charger’s travel distance as well as the charging time delay. In this paper, we show how to build a charging path that reduces not only the mobile charger’s maximum working time, but also the charging time delay or charging latency, as well as the mobile charger’s or Mobile Charging Vehicle’s (MCV) travel distance . Here first we cluster the sensor nodes based on their location, then we derive a path using Gravitational Search Algorithm inside the clusters. We stimulate the proposed work and compare the working time of the MCV with some existing algorithms to show the efficiency.

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Correspondence to Md Azharuddin.

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Rahaman, S.M.A., Azharuddin, M. A cluster based charging schedule for wireless rechargeable sensor networks using gravitational search algorithm. Wireless Netw 28, 3323–3336 (2022). https://doi.org/10.1007/s11276-022-03049-y

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