Sep 2026· International journal of Computer Networks & Communications· 0 citations
TL;DR
PALEO is proposed, which integrates residual energy prediction, adaptive node activation and deactivation, and lifetime-based routing to enhance network lifetime and consistently outperforms benchmark protocols.
Abstract
One of the challenges associated with the applications of Wireless Sensor Networks (WSNs) is prolonging the operational lifetime of sensor networks. Simple techniques such as clustering, fixed-area scheduling, and distance-based routing can lead to unbalanced energy consumption and premature network partitioning. To address these limitations, this research proposes Predictive Adaptive Lifetime Enhancement Optimization (PALEO), which integrates residual energy prediction, adaptive node activation and deactivation, and lifetime-based routing to enhance network lifetime.The algorithm makes predictions for future residual energy of every node and adaptively switches nodes between sleep and work modes. The cost-effective paths are generated using the modified Dijkstra-based routing algorithm considering residual energy, communication range and local congestion. Extensive simulations conducted under various node densities and packet sizes demonstrate that PALEO consistently outperforms benchmark protocols, achieving up to 99.9% packet delivery, significant energy savings and a 36% enhancement in network duration.
Energy efficiency remains a critical challenge in Wireless Sensor Networks (WSNs) due to limited, non-rechargeable node batteries. This paper presents a lightweight and adaptive clustering protocol that improves energy utilization and network stability by jointly evaluating residual energy, local neighborhood connectiv...
Jilani M. Shaikh, Preeti S. Topannvar· Engineering, Technology &...· 0 citations
Wireless Sensor Networks (WSNs) are used for reliable communication and monitoring, allowing data to be transferred to long-range places. However, because WSNs run on batteries, energy-efficient multi-hop routing is necessary for data transmission. Higher communication delays, increased latency, and a shorter network l...
Wireless Sensor Networks (WSNs) consist of numerous sensor nodes that communicate wirelessly to collect and transmit information from a monitored environment. Due to the limited battery capacity of sensor nodes and the difficulty of replacing or recharging batteries after deployment, energy consumption is a major facto...
Basma Saleh Al-Arbah· Al-Farooq Journal of Science...· 0 citations
The results indicate that GME-LEACH provides an integrated energy-aware clustering and routing framework for improving the operational lifetime and communication efficiency of WSNs and provides a well-balanced combination of early-node survivability, continuous network operation, and data transmission.
The use of wireless sensor networks, or WSNs, is expanding for a number of purposes, such as environmental monitoring, healthcare delivery, and more. These networks are composed of tiny, sensor-equipped devices known as nodes that are able to wirelessly sense, analyze, and send data. Because of their short network life...
K. Satyasree, V. Murthy, S. Poornima et al.· International Journal of Mar...· 0 citations
General Background Wireless Sensor Networks (WSNs) remain a foundational technology for Internet of Things (IoT) deployments, offering capabilities for distributed sensing, localized data collection, and multihop communication toward edge gateways or sinks. Specific Background Routing layers within WSN designs dictate...
Zainab A. Fadhil· Indonesian Journal of Innova...· 0 citations
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