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Powered Two-Wheeler Riding Profile Clustering for an In-Depth Study of Bend-Taking Practices.
Mohamed Diop1, Abderrahmane Boubezoul1, Latifa Oukhellou2
1TS2-SIMU&MOTO, Université Gustave Eiffel, IFSTTAR, F-77447 Marne-la-Vallée, France.
Sensors (Basel, Switzerland)
|November 26, 2020
Summary
This study identifies typical motorcycle rider behaviors in bends using data-driven clustering methods. It analyzes rider dynamics and handlebar actions to understand control strategies during cornering.
Area of Science:
- Road safety
- Motorcycle dynamics
- Human-machine interaction
Background:
- Understanding rider/vehicle interaction in motorcycle cornering is challenging due to limited instrumentation and diverse rider practices.
- Existing knowledge on motorcycle bend-taking strategies lacks comprehensive, data-driven insights into actual riding behaviors.
Purpose of the Study:
- To develop a data-driven methodology for identifying typical motorcycle rider behaviors during bend-taking using clustering.
- To enhance the understanding of powered two-wheeler (PTW) riding practices in curves through real-world data collection.
Main Methods:
- Collected real-world data on PTW dynamics (velocity, acceleration, jerk), road position (curvature), and handlebar input (steering angle) within the VIROLO++ project.
- Applied clustering methods to identify distinct riding behavior patterns in bends.
- Utilized Anderson-Darling tests for statistical analysis and compared clustering results with subjective rider data.
Main Results:
- Identified and contextualized typical riding tendencies in bends through clustering analysis.
- Demonstrated the effectiveness of a data-driven approach in characterizing motorcycle cornering behaviors.
- Highlighted differences in control strategies (handlebar steering vs. rider lean) via pressure sensor data analysis.
Conclusions:
- The developed methodology successfully categorizes motorcycle rider behaviors in bends.
- Data-driven analysis provides valuable insights into PTW cornering practices, complementing subjective rider accounts.
- Further analysis using pressure sensors can differentiate between steering and leaning control techniques.
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