Adaptive Mode-Aware Swarm Hybrid Optimization for Heterogeneous UAV-Assisted IoV-MEC Networks

UAV-mounted Mobile Edge Computing (MEC) can extend vehicular computing where terrestrial infrastructure is sparse, but dense traffic and limited UAV batteries make resource management difficult. We consider a swarm in which a base-station-connected Head-UAV coexists with a flying ad hoc network of Member-UAVs and propose Adaptive Mode-Aware Swarm Hybrid (A-MASH), which jointly decides vehicle association with admission control, MEC CPU allocation, uplink power and UAV-to-UAV relaying. A battery- and load-aware ant colony search over the discrete decisions is coupled with a Grey Wolf Optimizer over the continuous resources; the Head-UAV access mode follows load, battery and interference-cancellation quality, and a Kalman-filter channel predictor supports decoding. In slot-level simulations with 10–150 vehicles and equal evaluation budgets, A-MASH delivers 65–102% more tasks on time than standalone metaheuristics at 100 vehicles and matches an alternating-optimization baseline up to 100 vehicles, but simple model-based heuristics are better once the load exceeds the computing capacity of the swarm. The predictor adds up to 5.5 percentage points of delivery ratio, NOMA helps only with near-perfect interference cancellation, and the battery-aware mechanisms postpone the first UAV withdrawal by one scheduling epoch.

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Publication Details

Journal
Vehicles
Published
2026-11-10
DOI
https://doi.org/10.3390/vehicles8110296
Primary Topic
UAV Applications and Optimization
Type
article
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article

Adaptive Mode-Aware Swarm Hybrid Optimization for Heterogeneous UAV-Assisted IoV-MEC Networks

Yeonwoo Lee
Vehicles
UAV Applications and Optimization
article

Adaptive Mode-Aware Swarm Hybrid Optimization for Heterogeneous UAV-Assisted IoV-MEC Networks

Yeonwoo Lee
article en

Abstract

UAV-mounted Mobile Edge Computing (MEC) can extend vehicular computing where terrestrial infrastructure is sparse, but dense traffic and limited UAV batteries make resource management difficult. We consider a swarm in which a base-station-connected Head-UAV coexists with a flying ad hoc network of Member-UAVs and propose Adaptive Mode-Aware Swarm Hybrid (A-MASH), which jointly decides vehicle association with admission control, MEC CPU allocation, uplink power and UAV-to-UAV relaying. A battery- and load-aware ant colony search over the discrete decisions is coupled with a Grey Wolf Optimizer over the continuous resources; the Head-UAV access mode follows load, battery and interference-cancellation quality, and a Kalman-filter channel predictor supports decoding. In slot-level simulations with 10–150 vehicles and equal evaluation budgets, A-MASH delivers 65–102% more tasks on time than standalone metaheuristics at 100 vehicles and matches an alternating-optimization baseline up to 100 vehicles, but simple model-based heuristics are better once the load exceeds the computing capacity of the swarm. The predictor adds up to 5.5 percentage points of delivery ratio, NOMA helps only with near-perfect interference cancellation, and the battery-aware mechanisms postpone the first UAV withdrawal by one scheduling epoch.

VehiclesVol. 8(11)
Mokpo National University (KR)
UAV Applications and Optimization
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