Aug 2026· International Journal of Electronics and Communication Engineering· Vol 13, pp. 166-184· 0 citations· 27 references
TL;DR
The combination of optimization intelligence and belief-based reasoning allows COD-STAR to deliver valid and effective communication routes in demanding conditions of VANETs, which guarantees the routing stability and scalability in the ever-changing traffic situations.
Abstract
Vehicular Ad Hoc Networks require routing protocols which are able to handle high mobility, uncertain connectivity, and changing environmental conditions. Proposed COD-STAR presents a hybrid method involving Chinchilla Optimization and Dempster-Shafer Theory that can support intelligent routing that is trust-aware and context sensitive. The protocol starts with building anchor paths based on the structured urban topology, and then real-time contextual data of the mobile nodes and infrastructure is collected. Various routing metrics are assigned belief values and fused with the help of DST to determine how reliable the paths are when there is uncertainty. Adaptive exploration and exploitation of candidate routes is done by Chinchilla agents, which are informed by dynamic fitness models that combine fused beliefs and environmental volatility. The continuous updating of belief scores is facilitated by feedback mechanisms, which allow the recalibration of the path in real-time and refinement of decisions. The combination of optimization intelligence and belief-based reasoning allows COD-STAR to deliver valid and effective communication routes in demanding conditions of VANETs, which guarantees the routing stability and scalability in the ever-changing traffic situations.
Vehicular ad hoc networks (VANETs) require routing decisions that balance connectivity, link reliability and energy efficiency under continuously changing mobility and density. Conventional clustering-based routing combines these objectives using weights fixed in advance, which cannot reflect the changing relative impo...
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