Hierarchical Optimization Based Multi-objective Dynamic Regulation Scheme for VANET Topology

Fuente: arXiv
Guardado en:
Detalles Bibliográficos
Autores principales: Ren, Ruixing, Tao, Minqi, Zhao, Junhui, Sun, Xiaoke, Li, Qiuping
Formato: Preprint
Publicado: 2026
Materias:
Acceso en línea:
Etiquetas: Agregar Etiqueta
Sin Etiquetas, Sea el primero en etiquetar este registro!
_version_ 1866911389218504704
author Ren, Ruixing
Tao, Minqi
Zhao, Junhui
Sun, Xiaoke
Li, Qiuping
author_facet Ren, Ruixing
Tao, Minqi
Zhao, Junhui
Sun, Xiaoke
Li, Qiuping
contents As a core technology of intelligent transportation systems, vehicular ad-hoc networks support latency-sensitive services such as safety warning and cooperative perception via vehicle-to-everything communications. However, their highly dynamic topology increases average path length, raises latency, and reduces throughput, severely limiting communication performance. Existing topology optimization methods lack capabilities in multi-objective coordination, dynamic adaptation, and global-local synergy. To address this, this paper proposes a two-layer dynamic topology regulation scheme combining local feature aggregation and global adjustment. The scheme constructs a dynamic multi-objective optimization model integrating average path length, end-to-end latency, and network throughput, and achieves multi-index coordination via link adaptability metrics and a dynamic normalization mechanism. it quickly responds to local link changes via feature fusion of local node feature extraction and dynamic neighborhood sensing, and balances optimization accuracy and real-time performance using a dual-mode adaptive solving strategy for global topology adjustment. It reduces network oscillation risks by introducing a performance improvement threshold and a topology validity verification mechanism. Simulation results on real urban road networks via the SUMO platform show that the proposed scheme outperforms traditional methods in average path length (stabilizing at ~4 hops), end-to-end latency (remaining ~0.01 s), and network throughput.
format Preprint
id arxiv_https___arxiv_org_abs_2601_14704
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Hierarchical Optimization Based Multi-objective Dynamic Regulation Scheme for VANET Topology
Ren, Ruixing
Tao, Minqi
Zhao, Junhui
Sun, Xiaoke
Li, Qiuping
Systems and Control
90B18, 68M10, 94A12
C.2.1; C.2.4; C.4
As a core technology of intelligent transportation systems, vehicular ad-hoc networks support latency-sensitive services such as safety warning and cooperative perception via vehicle-to-everything communications. However, their highly dynamic topology increases average path length, raises latency, and reduces throughput, severely limiting communication performance. Existing topology optimization methods lack capabilities in multi-objective coordination, dynamic adaptation, and global-local synergy. To address this, this paper proposes a two-layer dynamic topology regulation scheme combining local feature aggregation and global adjustment. The scheme constructs a dynamic multi-objective optimization model integrating average path length, end-to-end latency, and network throughput, and achieves multi-index coordination via link adaptability metrics and a dynamic normalization mechanism. it quickly responds to local link changes via feature fusion of local node feature extraction and dynamic neighborhood sensing, and balances optimization accuracy and real-time performance using a dual-mode adaptive solving strategy for global topology adjustment. It reduces network oscillation risks by introducing a performance improvement threshold and a topology validity verification mechanism. Simulation results on real urban road networks via the SUMO platform show that the proposed scheme outperforms traditional methods in average path length (stabilizing at ~4 hops), end-to-end latency (remaining ~0.01 s), and network throughput.
title Hierarchical Optimization Based Multi-objective Dynamic Regulation Scheme for VANET Topology
topic Systems and Control
90B18, 68M10, 94A12
C.2.1; C.2.4; C.4
url https://arxiv.org/abs/2601.14704