WSN Implementation to Prevent Train Track Collapse
Elbehiry, E., salama, A. (2023). WSN Implementation to Prevent Train Track Collapse. EKB Journal Management System, 03(02), 1-8. doi: 10.21608/ijt.2023.319617
Eman Adel Elbehiry; Atef salama. "WSN Implementation to Prevent Train Track Collapse". EKB Journal Management System, 03, 02, 2023, 1-8. doi: 10.21608/ijt.2023.319617
Elbehiry, E., salama, A. (2023). 'WSN Implementation to Prevent Train Track Collapse', EKB Journal Management System, 03(02), pp. 1-8. doi: 10.21608/ijt.2023.319617
Elbehiry, E., salama, A. WSN Implementation to Prevent Train Track Collapse. EKB Journal Management System, 2023; 03(02): 1-8. doi: 10.21608/ijt.2023.319617

WSN Implementation to Prevent Train Track Collapse

International Journal of Telecommunications
Volume 03, Issue 02, September 2023, Page 1-8  XML PDF (1.15 MB)
Document Type: Original Article
DOI: 10.21608/ijt.2023.319617
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Authors
Eman Adel Elbehiry email orcid 1; Atef salama2
1Giza higher institute for Engineering and technology
2Giza Higher Institute for Engineering and Technology
Abstract
In this research, it presents a Wireless Area Network (WSN) routing protocol with high throughput, dependability, and energy efficiency. It uses multi-hop topology to reduce energy consumption and increase network lifetime. It suggests utilizing a cost function to select a parent node or forwarder. The recommended cost function picks a parent node that is close to the sink and has a high residual energy.  The residual energy parameter balances the energy consumption among the sensor nodes, while the distance parameter ensures successful packet delivery to the sink. The results of the simulations demonstrate that the suggested protocol maximizes network stability and node uptime. Higher packet delivery to sink is a result of longer stability periods, which is highly desirable for ongoing patient monitoring. This study describes a technical framework that includes sensor placement, base station and sensor node architecture, routing protocols, signal acquisition and transmission, and the establishment of an online monitoring system. The evaluation of linear network topologies based on routing algorithms for train monitoring has been studied using a realistic mesh sensing system. Results show that multi-hop topology outperforms the conventional in terms of end-to-end delay, throughput, and residual energy level. Our protocol approach maximizes network stability and node uptime, according to the simulation results. Longer stability durations lead to higher packet delivery to sink, which is extremely desirable for continual patient monitoring.
Keywords
Routing Scheme; Wireless Sensor Network (WSN); Multi Hop; sensor node; cost function; Residual Energy; LEACH Protocol
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