A Machine Learning Approach for Smartphone-based Sensing of Roads and Driving Style
M. Ricardo Carlos

TL;DR
This paper presents machine learning methods using smartphone sensor data to assess road quality and detect aggressive driving, improving accuracy and efficiency over existing techniques.
Contribution
It introduces new machine learning approaches for road anomaly detection, pothole depth ranking, and aggressive driving classification using smartphone acceleration data.
Findings
Improved road anomaly detection without thresholds
Effective pothole depth ranking with learning-to-rank methods
Accurate classification of aggressive driving maneuvers
Abstract
Road transportation is of critical importance for a nation, having profound effects in the economy, the health and life style of its people. With the growth of cities and populations come bigger demands for mobility and safety, creating new problems and magnifying those of the past. New tools are needed to face the challenge, to keep roads in good conditions, their users safe, and minimize the impact on the environment. This dissertation is concerned with road quality assessment and aggressive driving, two important problems in road transportation, approached in the context of Intelligent Transportation Systems by using Machine Learning techniques to analyze acceleration time series acquired with smartphone-based opportunistic sensing to automatically detect, classify, and characterize events of interest. Two aspects of road quality assessment are addressed: the detection and the…
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Taxonomy
TopicsTraffic Prediction and Management Techniques · Autonomous Vehicle Technology and Safety · Vehicle emissions and performance
MethodsSPEED: Separable Pyramidal Pooling EncodEr-Decoder for Real-Time Monocular Depth Estimation on Low-Resource Settings
