Energy Efficient MANET by Trusted Node Identification Using IHSO Optimization

Krishnaveni, S.; N., Angel

doi:10.1007/978-981-13-8614-5_15

Cited by 1 publication

(1 citation statement)

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“…S. Krishnaveni and N. Angel [27], have presented a protocol called "Energy Efficient Ad hoc On Demand Distance Vector Routing (EE-AODV)" which identifies the trusted nodes for effective communication through parameter optimization. The authors have also proposed "a new clustering model referred to as Virtual Link Weight based Clustering (VLWBC)" to group the random nodes for parameter optimization.…”

Section: Related Workmentioning

confidence: 99%

Energy Aware Stable Multipath Disjoint Routing Based on Accumulated Trust Value in MANETs

Benakappa¹,

Kiran²

2022

IJCNIS

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Conserving energy and finding the stable path are the two vital issues in Mobile Ad Hoc Networks (MANETs) as the prior increases the network lifetime and the later increases the network throughput. The nodes which are not legitimate in terms of residual energy and packet forwarding history might be a threat to the path thereby making the path unstable. Thus, it results in frequent link failure, reduced throughput, reduced network and path life time. In order to reduce these hazards, authors have proposed an energy efficient, reliable path selecting protocol referred to as Trust Based Energy Aware Multipath Disjoint Routing Protocol (TEA-MDRP) for MANETS in this article. TEA-MDRP finds the optimum route between the source and the destination nodes using two parameters namely, the Accumulated Trust Value (ATV) and the node’s residual energy (N_res). ATV is calculated based on the packet forwarding status of the node which shows how good the node is in terms of packet forwarding point of view. TEA-MDRP allows only the nodes which have a good ATV and sufficient residual energy. A good ATV shows loyalty in forwarding the packets while a sufficiently large residual energy node avoids frequent path breakups and packet drops. Thus, the TEA-MDRP not only increases the network and path lifetime but also increases the throughput of the communication. Further, with the legitimate nodes in the paths, the TEA-MDRP considerably reduces the control packet overhead which might occur because of the frequent route re-discovery process. An extensive simulation is carried out using Network Simulator-2.35 for the quantitative and qualitative analysis of TEA-MDRP. The results obtained are compared with classical AOMDV and the results are satisfactory.

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Section: Related Workmentioning

confidence: 99%