Hierarchical Strategic Decision-Making in Layered Mobility Systems

Fuente: arXiv
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Main Authors: He, Mingjia, He, Zhiyu, Ghadamian, Jan, Dörfler, Florian, Frazzoli, Emilio, Zardini, Gioele
Format: Preprint
Published: 2025
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author He, Mingjia
He, Zhiyu
Ghadamian, Jan
Dörfler, Florian
Frazzoli, Emilio
Zardini, Gioele
author_facet He, Mingjia
He, Zhiyu
Ghadamian, Jan
Dörfler, Florian
Frazzoli, Emilio
Zardini, Gioele
contents Mobility systems are complex socio-technical environments influenced by multiple stakeholders with hierarchically interdependent decisions, rendering effective control and policy design inherently challenging. We bridge hierarchical game-theoretic modeling with online feedback optimization by casting urban mobility as a tri-level Stackelberg game (travelers, operators, municipality) closed in a feedback loop. The municipality iteratively updates taxes, subsidies, and operational constraints using a projected two-point (gradient-free) scheme, while lower levels respond through equilibrium computations (Frank-Wolfe for traveler equilibrium; operator best responses). This model-free pipeline enforces constraints, accommodates heterogeneous users and modes, and scales to higher-dimensional policy vectors without differentiating through equilibrium maps. On a real multimodal network for Zurich, Switzerland, our method attains substantially better municipal objectives than Bayesian optimization and Genetic algorithms, and identifies integration incentives that increase multimodal usage while improving both operator objectives. The results show that feedback-based regulation can steer competition toward cooperative outcomes and deliver tangible welfare gains in complex, data-rich mobility ecosystems.
format Preprint
id arxiv_https___arxiv_org_abs_2511_08734
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Hierarchical Strategic Decision-Making in Layered Mobility Systems
He, Mingjia
He, Zhiyu
Ghadamian, Jan
Dörfler, Florian
Frazzoli, Emilio
Zardini, Gioele
Systems and Control
Mobility systems are complex socio-technical environments influenced by multiple stakeholders with hierarchically interdependent decisions, rendering effective control and policy design inherently challenging. We bridge hierarchical game-theoretic modeling with online feedback optimization by casting urban mobility as a tri-level Stackelberg game (travelers, operators, municipality) closed in a feedback loop. The municipality iteratively updates taxes, subsidies, and operational constraints using a projected two-point (gradient-free) scheme, while lower levels respond through equilibrium computations (Frank-Wolfe for traveler equilibrium; operator best responses). This model-free pipeline enforces constraints, accommodates heterogeneous users and modes, and scales to higher-dimensional policy vectors without differentiating through equilibrium maps. On a real multimodal network for Zurich, Switzerland, our method attains substantially better municipal objectives than Bayesian optimization and Genetic algorithms, and identifies integration incentives that increase multimodal usage while improving both operator objectives. The results show that feedback-based regulation can steer competition toward cooperative outcomes and deliver tangible welfare gains in complex, data-rich mobility ecosystems.
title Hierarchical Strategic Decision-Making in Layered Mobility Systems
topic Systems and Control
url https://arxiv.org/abs/2511.08734