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SpiralEdge-IoV: secure and adaptive task offloading in internet of vehicles edge computing using logarithmic spiral
Shankar J1, Nagaraja S R2,3
1Research Scholar, School of Computer Science, Presidency University, Bengaluru, Karnataka, India. Shankar.j@presidencyuniversity.in.
Scientific Reports
|June 2, 2026
Summary
SpiralEdge-IoV offers secure task offloading for intelligent transportation systems. This framework enhances reliability and security in vehicular edge computing, improving performance in adversarial conditions.
Area of Science:
- Intelligent Transportation Systems
- Vehicular Edge Computing
- Network Security
Background:
- The Internet of Vehicles (IoV) is crucial for intelligent transportation systems, enabling vehicle-edge computing for demanding applications.
- Existing task offloading methods in IoV often overlook security and adaptability, failing in dynamic, adversarial environments.
- High mobility, intermittent connectivity, and malicious behavior compromise IoV reliability and security.
Purpose of the Study:
- To design a secure and adaptive task offloading framework for the Internet of Vehicles (IoV).
- To address the limitations of existing approaches by integrating defense mechanisms with optimization strategies.
- To enhance the reliability and security of vehicular edge computing in challenging operational conditions.
Main Methods:
- Developed SpiralEdge-IoV, a framework integrating a logarithmic spiral defense (LSD) mechanism for adaptive trust modeling and risk evaluation.
- Integrated LSD with a bio-inspired Addax-optimization-based decision model (LSD-AddaxNet) for security-aware multi-objective offloading.
- Evaluated the framework using realistic vehicular edge-offloading traces and the VeReMi misbehavior dataset.
Main Results:
- SpiralEdge-IoV achieved up to 18% lower average task latency and reduced energy consumption by approximately 15%.
- The framework increased task success rates in adversarial settings by over 20% compared to baseline methods.
- Demonstrated stable optimization with acceptable runtime overhead, even in dense vehicular scenarios.
Conclusions:
- SpiralEdge-IoV provides an effective solution for attack-resilient, low-latency IoV edge computing.
- The framework is suitable for safety-critical vehicular applications and future intelligent transportation systems.
- The integration of adaptive defense and bio-inspired optimization enhances IoV system robustness and performance.
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