Bayesian Destination Inference for Predictive Congestion Prevention in Indian Urban Corridors: The PTIS v2.0 Architecture

Urban traffic management systems in Indian cities face two compounding challenges absent from Western deployments: two-wheelers constitute 62–65% of the vehicle fleet and behave as compressible fluid rather than discrete agents, and navigation applications (Google Maps, Waze) with 85%+ smartphone penetration route independently of infrastructure signals, creating secondary congestion on designated diversion routes. We present PTIS v2.0 (Predictive Traffic Intelligence System), a four-layer predictive architecture for the Bengaluru Outer Ring Road corridor (Silk Board → Whitefield, 18 km, 6 junctions) that addresses both challenges through a novel integration of Bayesian destination inference and dynamic connector-road activation. PTIS's primary contribution is corridor-level Bayesian destination inference from junction checkpoint observations: each junction a vehicle passes without turning eliminates destination candidates, building a posterior that achieves 65–88% confidence 2–3 junctions before the destination. This confidence triggers smart link activation — dynamic opening of existing connector roads — before congestion forms rather than after. Secondary contributions include: (1) a real-time Lighthill-Whitham-Richards (LWR) fluid model solved with the Godunov scheme for two-wheeler density estimation; (2) a PID closed-loop compliance controller eliminating the fixed-compliance assumption used by all deployed systems; (3) a joint navigation app co-optimisation framework via Google Road Manager API preventing secondary bottleneck formation. Simulation on the Silk Board to Whitefield corridor shows 43% congestion reduction, 8.2 min/vehicle travel time savings, and Rs. 374 Crore/yr (approx. USD 45M/yr) annual economic benefit at Rs. 23.74 Crore capex. No currently deployed traffic management system in India combines these four mechanisms.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-06-12
DOI
https://doi.org/10.5281/zenodo.20669908
Primary Topic
Traffic control and management
Type
preprint
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preprint

Bayesian Destination Inference for Predictive Congestion Prevention in Indian Urban Corridors: The PTIS v2.0 Architecture

Asmitha M
Zenodo (CERN European Organization for Nuclear Research)
Traffic control and management
preprint

Bayesian Destination Inference for Predictive Congestion Prevention in Indian Urban Corridors: The PTIS v2.0 Architecture

Asmitha M
preprint en

Abstract

Urban traffic management systems in Indian cities face two compounding challenges absent from Western deployments: two-wheelers constitute 62–65% of the vehicle fleet and behave as compressible fluid rather than discrete agents, and navigation applications (Google Maps, Waze) with 85%+ smartphone penetration route independently of infrastructure signals, creating secondary congestion on designated diversion routes. We present PTIS v2.0 (Predictive Traffic Intelligence System), a four-layer predictive architecture for the Bengaluru Outer Ring Road corridor (Silk Board → Whitefield, 18 km, 6 junctions) that addresses both challenges through a novel integration of Bayesian destination inference and dynamic connector-road activation. PTIS's primary contribution is corridor-level Bayesian destination inference from junction checkpoint observations: each junction a vehicle passes without turning eliminates destination candidates, building a posterior that achieves 65–88% confidence 2–3 junctions before the destination. This confidence triggers smart link activation — dynamic opening of existing connector roads — before congestion forms rather than after. Secondary contributions include: (1) a real-time Lighthill-Whitham-Richards (LWR) fluid model solved with the Godunov scheme for two-wheeler density estimation; (2) a PID closed-loop compliance controller eliminating the fixed-compliance assumption used by all deployed systems; (3) a joint navigation app co-optimisation framework via Google Road Manager API preventing secondary bottleneck formation. Simulation on the Silk Board to Whitefield corridor shows 43% congestion reduction, 8.2 min/vehicle travel time savings, and Rs. 374 Crore/yr (approx. USD 45M/yr) annual economic benefit at Rs. 23.74 Crore capex. No currently deployed traffic management system in India combines these four mechanisms.

Zenodo (CERN European Organization for Nuclear Research)
Sustainable cities and communities
Traffic control and management
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Bayesian Destination Inference for Predictive Congestion Prevention in Indian Urban Corridors: The PTIS v2.0 Architecture — Asmitha M · Zenodo (CERN European Organization for Nuclear Research) (2026) | TGRS Research Map | TGRS