Vehicular Edge Computing & Networking

Automated driving produces large, time-sensitive data flows, such as maps, shared perception, and model inference, that exceed what one vehicle can compute and what networks can deliver on demand. This work asks where computation should run, which data to send, and how to keep shared information fresh. It addresses these questions with methods that divide computation and data between vehicles and edge servers under latency and bandwidth limits.

Main themes

  1. Live HD maps from vehicle and edge collaboration

    Crowdsourced live high-definition maps built by collaborative computation between vehicles and edge servers, formulated to minimize transmission and computing resource usage under end-to-end latency limits; and COMAP, proactive provisioning of crowdsourced maps.

    Zhang et al., IEEE TVT 2024 ยท COMAP, IEEE ICC 2023

  2. Real-time cooperative perception at the edge

    AdaMap adaptively selects and compresses shared point-cloud data so that cooperative perception meets latency targets for large numbers of vehicles under changing network conditions.

    AdaMap, ACM/IEEE SEC 2023

  3. Learning-based data delivery and offloading

    DSORL, reinforcement-learning data-source selection for HD-map delivery in vehicular named data networking; REAL, learning-based offloading for edge-assisted mobile augmented reality; and network-aware task distribution for edge-assisted generative AI.

    DSORL, IEEE T-ITS 2023 ยท REAL, IEEE TMC 2026 ยท Yan et al., IEEE ICC 2026

  4. Vehicles as edge resources and information freshness

    CAVE, which crowdsources passing-by vehicles for reliable in-vehicle edge computing, and age-of-information-aware service aggregation for connected vehicles.

    CAVE, IEEE GLOBECOM 2024 ยท Mallik et al., IEEE ICC 2024

Systems and validation

Representative publications

A curated selection. Citations above link to each paper; see the full publication list for all work.

IEEE TVT 2024

Crowdsourcing Live High Definition Map via Collaborative Computation in Automotive Edge Computing

Y. Zhang, Q. Liu, H. Wang, D. Chen, and K. Han

IEEE Transactions on Vehicular Technology, vol. 73, no. 9, pp. 13569โ€“13583

ACM/IEEE SEC 2023

AdaMap: High-scalable real-time cooperative perception at the edge

Q. Liu, Y. Xue, Y. Zhang, D. Chen, and K. Han

ACM/IEEE Symposium on Edge Computing (SEC), Wilmington, DE, USA

IEEE T-ITS 2023

DSORL: Data Source Optimization with Reinforcement Learning Scheme for Vehicular Named Data Networks

D. Doe, D. Chen, K. Han, H. Wang, J. Xie, and Z. Han

IEEE Transactions on Intelligent Transportation Systems, vol. 24, no. 10, pp. 11225โ€“11237

IEEE TMC 2026Accepted

REAL: A Reinforcement Learning-based Intelligent Offloading Framework for Edge-Assisted MAR

L. Xie, A. Mallik, D. Chen, K. Han, and Z. Han

IEEE Transactions on Mobile Computing

IEEE GLOBECOM 2024

CAVE: Crowdsourcing passing-by vehicles for reliable in-vehicle edge computing

J. Cao, Q. Liu, D. Chen, and K. Han

IEEE Global Communications Conference: Mobile and Wireless Networks (GLOBECOM), Cape Town, South Africa

IEEE ICC 2026

Network-Aware Intelligent Task Distributor for Edge-Assisted Generative AI

J. Yan, M. Talukder, D. Chen, K. Han, and L. Xie

IEEE International Conference on Communications (ICC), Glasgow, United Kingdom

Full publication list