Statistical Pattern Recognition for Driving Styles Based on Bayesian Probability and Kernel Density Estimation
Wenshuo Wang, Junqiang Xi, and Xiaohan Li

TL;DR
This paper presents a statistical pattern-recognition approach using Bayesian probability and kernel density estimation to classify driving styles based on vehicle speed and throttle data, improving efficiency and stability over fuzzy logic methods.
Contribution
The paper introduces a novel pattern-recognition method combining Bayesian theory and kernel density estimation for classifying driving styles from path-tracking behaviors.
Findings
More efficient classification of driving styles.
Higher stability compared to fuzzy logic-based methods.
Effective differentiation of seven driving style levels.
Abstract
Driving styles have a great influence on vehicle fuel economy, active safety, and drivability. To recognize driving styles of path-tracking behaviors for different divers, a statistical pattern-recognition method is developed to deal with the uncertainty of driving styles or characteristics based on probability density estimation. First, to describe driver path-tracking styles, vehicle speed and throttle opening are selected as the discriminative parameters, and a conditional kernel density function of vehicle speed and throttle opening is built, respectively, to describe the uncertainty and probability of two representative driving styles, e.g., aggressive and normal. Meanwhile, a posterior probability of each element in feature vector is obtained using full Bayesian theory. Second, a Euclidean distance method is involved to decide to which class the driver should be subject instead of…
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Taxonomy
MethodsSPEED: Separable Pyramidal Pooling EncodEr-Decoder for Real-Time Monocular Depth Estimation on Low-Resource Settings
