Non-monotonic flow variations in a TASEP-based traffic model featuring cars searching for parking
Valentin Anfray (CNRS), Alexandre Nicolas (ILM, CNRS)

TL;DR
This paper introduces a TASEP-based traffic model with parking search behavior, revealing non-monotonic flow variations and phase transitions caused by the interaction of cruising and parking cars, emphasizing the impact of perturbations on traffic flow.
Contribution
It presents a novel TASEP variant incorporating parking search dynamics, demonstrating complex flow phenomena and phase behavior not seen in traditional models.
Findings
Non-monotonic steady-state current with injection rate
Re-entrant phase transitions observed
Flow disruptions caused by parking-related effects
Abstract
The Totally Asymmetric Simple Exclusion Process (TASEP) is a paradigm of out-of-equilibrium Statistical Physics that serves as a simplistic model for one-way vehicular traffic. Since traffic is perturbed by cars cruising for parking in many metropolises, we introduce a variant of TASEP, dubbed SFP, in which particles are initially cruising at a slower speed and aiming to park on one of the sites adjacent to the main road, described by a unidimensional lattice. After parking, they pull out at a finite rate and move at a normal speed. We show that this model, which breaks many of the conservation rules applicable in other TASEP variants, exhibits singular features, in particular non-monotonic variations of the steady-state current with the injection rate and re-entrant transitions in the phase diagram, for some range of parameters. These features are robust to variations in the update…
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Taxonomy
TopicsStochastic processes and statistical mechanics · Theoretical and Computational Physics · Complex Network Analysis Techniques
