Macroscopic fundamental diagram-based stability analysis of emerging low-altitude transport networks with multi-dimensional corridor configurations

Large-scale low-altitude air transport (LAAT) has the potential to extend urban mobility beyond ground networks, yet dense operations in constrained airspace may trigger congestion and unstable network states. This study develops a macroscopic fundamental diagram (MFD)-based framework to evaluate the efficiency, controllability, and stability retention of two-region low-altitude transport networks under different corridor configurations and operation modes. An airport-centered network comprising vertiports, intra-regional corridors, and inter-regional corridors is constructed, and a channelized distributed collision-avoidance model is introduced to capture safety-constrained aircraft movements. Linear, planar, and three-dimensional cruise corridor configurations are examined under cargo-only, passenger-only, and mixed cargo-passenger operations. The estimated MFD parameters are embedded into a two-region management model to quantify feasible inter-regional flow-control intervals, stable region (SR) areas, and their evolution with regional accumulation. Results show that upgrading the corridor structure from linear to planar and three-dimensional configurations increases network capacity and generally enlarges the controllable state space and weakens SR contraction. Quantitatively, for the mixed mode, the replication-based mean end-point relative change of SR area improves from - 4.1039 % under the linear corridor configuration to - 1.0768 % under the planar configuration and - 0.9204 % under the three-dimensional configuration. For the cargo-only mode, the corresponding values improve from - 2.3025 % to - 0.8071 % and - 0.3381 % , respectively. Robust factorial analysis confirms significant effects of corridor configuration, operation mode, and their interaction ( p < 0.001 ). The TCC configuration provides an additional statistically significant improvement over PCC for cargo-only and mixed operations, whereas the PCC–TCC difference is not statistically significant for passenger-only operation.

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Publication Details

Journal
Transportation Research Interdisciplinary Perspectives
Published
2026-08-14
DOI
https://doi.org/10.1016/j.trip.2026.102191
Primary Topic
Air Traffic Management and Optimization
Type
article
Field-Weighted Citation Impact
0.00

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article

Macroscopic fundamental diagram-based stability analysis of emerging low-altitude transport networks with multi-dimensional corridor configurations

Yijia Li, Haiyan Jiang, Olga Bulatova, Vladimir Zyryanov et al.
Transportation Research Interdisciplinary Perspectives
Air Traffic Management and Optimization
article

Macroscopic fundamental diagram-based stability analysis of emerging low-altitude transport networks with multi-dimensional corridor configurations

Yijia Li, Haiyan Jiang, Olga Bulatova, Vladimir Zyryanov, Wei Qi
article en

Abstract

Large-scale low-altitude air transport (LAAT) has the potential to extend urban mobility beyond ground networks, yet dense operations in constrained airspace may trigger congestion and unstable network states. This study develops a macroscopic fundamental diagram (MFD)-based framework to evaluate the efficiency, controllability, and stability retention of two-region low-altitude transport networks under different corridor configurations and operation modes. An airport-centered network comprising vertiports, intra-regional corridors, and inter-regional corridors is constructed, and a channelized distributed collision-avoidance model is introduced to capture safety-constrained aircraft movements. Linear, planar, and three-dimensional cruise corridor configurations are examined under cargo-only, passenger-only, and mixed cargo-passenger operations. The estimated MFD parameters are embedded into a two-region management model to quantify feasible inter-regional flow-control intervals, stable region (SR) areas, and their evolution with regional accumulation. Results show that upgrading the corridor structure from linear to planar and three-dimensional configurations increases network capacity and generally enlarges the controllable state space and weakens SR contraction. Quantitatively, for the mixed mode, the replication-based mean end-point relative change of SR area improves from - 4.1039 % under the linear corridor configuration to - 1.0768 % under the planar configuration and - 0.9204 % under the three-dimensional configuration. For the cargo-only mode, the corresponding values improve from - 2.3025 % to - 0.8071 % and - 0.3381 % , respectively. Robust factorial analysis confirms significant effects of corridor configuration, operation mode, and their interaction ( p < 0.001 ). The TCC configuration provides an additional statistically significant improvement over PCC for cargo-only and mixed operations, whereas the PCC–TCC difference is not statistically significant for passenger-only operation.

Transportation Research Interdisciplinary PerspectivesVol. 39
Rostov State Transport University (RU), Don State Technical University (RU), Shandong Jiaotong University (CN)
National Natural Science Foundation of China
Sustainable cities and communities
Openalex Percentile: Top 6%
Air Traffic Management and Optimization
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