An Integrated Network-Computing Load Balancing Simulator for VEC-Assisted Autonomous Vehicles

Achievement of offloaded analytics services through vehicle edge computing (VEC) requires a comprehensive analysis of in-vehicle processing and network environments. However, existing research on autonomous driving technologies leveraging VEC and related simulation studies remains in its early stages. This article presents the development of an integrated network-computing load (INCL) balancing simulator for autonomous vehicles, which combines a network model and an in-vehicle processing model implemented in MATLAB with a vehicle topology model and realistic driving scenarios created using a virtual test drive (VTD). Moreover, eight real-world autonomous driving scenarios are proposed to validate the simulator's performance, demonstrating its ability to effectively balance network and computational loads under diverse conditions. Finally, using a case study in a platooning driving scenario, we evaluate the simulator's capability to optimize resource utilization, paving the way for advanced autonomous driving technologies.

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Publication Details

Journal
IEEE Communications Magazine
Published
2025-05-29
DOI
https://doi.org/10.1109/mcom.003.2400432
Citations
3
Primary Topic
Transportation and Mobility Innovations
Type
article
Field-Weighted Citation Impact
2.05

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An Integrated Network-Computing Load Balancing Simulator for VEC-Assisted Autonomous Vehicles

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An Integrated Network-Computing Load Balancing Simulator for VEC-Assisted Autonomous Vehicles

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article en
3 citations

Abstract

Achievement of offloaded analytics services through vehicle edge computing (VEC) requires a comprehensive analysis of in-vehicle processing and network environments. However, existing research on autonomous driving technologies leveraging VEC and related simulation studies remains in its early stages. This article presents the development of an integrated network-computing load (INCL) balancing simulator for autonomous vehicles, which combines a network model and an in-vehicle processing model implemented in MATLAB with a vehicle topology model and realistic driving scenarios created using a virtual test drive (VTD). Moreover, eight real-world autonomous driving scenarios are proposed to validate the simulator's performance, demonstrating its ability to effectively balance network and computational loads under diverse conditions. Finally, using a case study in a platooning driving scenario, we evaluate the simulator's capability to optimize resource utilization, paving the way for advanced autonomous driving technologies.

IEEE Communications MagazineVol. 63(6)
Daegu Gyeongbuk Institute of Science and Technology (KR), Yonsei University (KR), Korea University (KR), Hanyang University (KR)
Institute for Information and Communications Technology Promotion
Affordable and clean energy
Openalex Percentile: Top 13%
Transportation and Mobility Innovations
2.05
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