access icon free Leveraging longitudinal driving behaviour data with data mining techniques for driving style analysis

Accurately understanding driving behaviour is of crucial importance for advanced driving assistant systems such as adaptive cruise control system and intelligent forward collision warning system. To understand different driving styles, this study employs the clustering method and topic model to extract latent driving states, which can elaborate and analyse the commonness and individuality of driving behaviour characteristics with the longitudinal driving behaviour data collected by the instrumented vehicle. To handle the large set of data and discover the valuable knowledge, the data mining techniques including ensemble clustering method based on the kernel fuzzy C-means algorithm and the modified latent Dirichlet allocation model are employed in this study. The ‘aggressive’, ‘cautious’ and ‘moderate’ driving states are discovered and the underlying quantified structure is built for the driving style analysis.

Inspec keywords: learning (artificial intelligence); pattern clustering; driver information systems; data mining; behavioural sciences computing

Other keywords: driving style analysis; ensemble clustering method; longitudinal driving behaviour data; aggressive driving state; data mining techniques; clustering method; modified latent Dirichlet allocation model; advanced driving assistant systems; moderate driving state; intelligent forward collision warning system; driving behaviour characteristics; topic model; kernel fuzzy C-means algorithm; cautious driving state; adaptive cruise control system

Subjects: Social and behavioural sciences computing; Traffic engineering computing; Knowledge engineering techniques; Data handling techniques

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