Markovian city-scale modelling and mitigation of micro-particles from tyres
Gunda Obereigner, Roman Overko, Serife Yilmaz, Emanuele Crisostomi,, Robert Shorten

TL;DR
This paper introduces a Markov chain-based model to predict and analyze tire micro-particle emissions at the city scale, addressing a growing environmental and health concern as electric vehicles reduce tailpipe emissions.
Contribution
The paper presents a novel Markovian model for city-scale prediction of tire micro-particle emissions, filling a gap in existing emission modeling approaches.
Findings
Model effectively predicts aggregate tire emissions in urban networks.
Application demonstrates utility in planning mitigation strategies.
Model can assist in tire dust particle collection efforts.
Abstract
The recent uptake in popularity in vehicles with zero tailpipe emissions is a welcome development in the fight against traffic induced airborne pollutants. As vehicle fleets become electrified, and tailpipe emissions become less prevalent, non-tailpipe emissions (from tires and brake disks) will become the dominant source of traffic related emissions, and will in all likelihood become a major concern for human health. This trend is likely to be exacerbated by the heavier weight of electric vehicles, their increased power, and their increased torque capabilities, when compared with traditional vehicles. While the problem of emissions from tire wear is well-known, issues around the process of tire abrasion, its impact on the environment, and modelling and mitigation measures, remain relatively unexplored. Work on this topic has proceeded in several discrete directions including:…
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Taxonomy
TopicsVehicle emissions and performance · Traffic control and management · Transportation Planning and Optimization
