Ai-Based Smart Parking And Traffic Prediction Systems: A Review Of Occupancy Detection, Availability Forecasting And Spatio-Temporal Traffic Models

Urban growth and rising vehicle numbers have created severe traffic congestion and shortages of parking space, leading to longer travel times, higher fuel consumption, pollution and driver frustration; a significant share of urban traffic consists of drivers searching for parking. This paper reviews AI-based smart parking and traffic prediction systems. It examines parking occupancy detection with in-ground sensors and with camera images classified by deep convolutional networks on public parking datasets, prediction of future parking availability with spatio-temporal models, and traffic flow forecasting from classical regression and decision trees to deep learning and graph neural networks that model road networks. The roles of cloud computing and mobile applications in guiding drivers are discussed. A five-layer architecture combining parking and traffic sensing, data integration, an AI prediction engine, a recommendation and guidance layer and user and authority applications is proposed, with research gaps, objectives, a comparison of techniques and challenges such as sensor cost, data quality, privacy and integration with existing infrastructure. The review concludes that integrating parking availability with traffic prediction can reduce cruising, waiting time and emissions while improving the use of parking facilities.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-11-10
DOI
https://doi.org/10.5281/zenodo.24115925
Primary Topic
Smart Parking Systems Research
Type
article
Field-Weighted Citation Impact
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article

Ai-Based Smart Parking And Traffic Prediction Systems: A Review Of Occupancy Detection, Availability Forecasting And Spatio-Temporal Traffic Models

Prof. S. K. Said, Prof. M. C. Kolse, Pawale Gauri Sandip, Prof. M. R. Kumbhoje
Zenodo (CERN European Organization for Nuclear Research)
Smart Parking Systems Research
article

Ai-Based Smart Parking And Traffic Prediction Systems: A Review Of Occupancy Detection, Availability Forecasting And Spatio-Temporal Traffic Models

Prof. S. K. Said, Prof. M. C. Kolse, Pawale Gauri Sandip, Prof. M. R. Kumbhoje
article en

Abstract

Urban growth and rising vehicle numbers have created severe traffic congestion and shortages of parking space, leading to longer travel times, higher fuel consumption, pollution and driver frustration; a significant share of urban traffic consists of drivers searching for parking. This paper reviews AI-based smart parking and traffic prediction systems. It examines parking occupancy detection with in-ground sensors and with camera images classified by deep convolutional networks on public parking datasets, prediction of future parking availability with spatio-temporal models, and traffic flow forecasting from classical regression and decision trees to deep learning and graph neural networks that model road networks. The roles of cloud computing and mobile applications in guiding drivers are discussed. A five-layer architecture combining parking and traffic sensing, data integration, an AI prediction engine, a recommendation and guidance layer and user and authority applications is proposed, with research gaps, objectives, a comparison of techniques and challenges such as sensor cost, data quality, privacy and integration with existing infrastructure. The review concludes that integrating parking availability with traffic prediction can reduce cruising, waiting time and emissions while improving the use of parking facilities.

Zenodo (CERN European Organization for Nuclear Research)
Smart Parking Systems Research
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