Incorporating wheel axle inclination effects into a vehicle-bridge interaction system for vehicle scanning method

The vehicle scanning method has been developed as a drive-by technique for identifying bridge dynamic characteristics from the responses of a moving test vehicle. In practical applications, however, geometric imperfections of the test vehicle, such as wheel axle inclination, may introduce additional frequency components into the measured vehicle response and affect the interpretation of the scanning results. A theoretical formulation is developed to describe the wheel axle inclination effects on the vehicle-bridge interaction system. The parametric investigation shows that the axle inclination angle primarily affects the amplitude of the harmonic excitation, whereas the wheel radius and vehicle speed determine its corresponding frequency in the vehicle spectrum. The analysis further shows that the harmonic component associated with axle inclination can be distinguished from bridge-induced frequency components based on its dependence on vehicle wheel characteristics. These findings provide a theoretical explanation for harmonic components observed in experimentally recorded vehicle responses and indicate that such components may serve as an indicator of wheel axle inclination in VSM applications.

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Publication Details

Journal
International Journal of Structural Stability and Dynamics
Published
2026-09-24
DOI
https://doi.org/10.1142/s0219455428710022
Primary Topic
Railway Engineering and Dynamics
Type
article
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Incorporating wheel axle inclination effects into a vehicle-bridge interaction system for vehicle scanning method

J. D. Yau, Judy P. Yang, Yi-Hsuan Chen
International Journal of Structural Stability and Dynamics
Railway Engineering and Dynamics
article

Incorporating wheel axle inclination effects into a vehicle-bridge interaction system for vehicle scanning method

J. D. Yau, Judy P. Yang, Yi-Hsuan Chen
article en

Abstract

The vehicle scanning method has been developed as a drive-by technique for identifying bridge dynamic characteristics from the responses of a moving test vehicle. In practical applications, however, geometric imperfections of the test vehicle, such as wheel axle inclination, may introduce additional frequency components into the measured vehicle response and affect the interpretation of the scanning results. A theoretical formulation is developed to describe the wheel axle inclination effects on the vehicle-bridge interaction system. The parametric investigation shows that the axle inclination angle primarily affects the amplitude of the harmonic excitation, whereas the wheel radius and vehicle speed determine its corresponding frequency in the vehicle spectrum. The analysis further shows that the harmonic component associated with axle inclination can be distinguished from bridge-induced frequency components based on its dependence on vehicle wheel characteristics. These findings provide a theoretical explanation for harmonic components observed in experimentally recorded vehicle responses and indicate that such components may serve as an indicator of wheel axle inclination in VSM applications.

International Journal of Structural Stability and Dynamics
Openalex Percentile: Top 21%
Railway Engineering and Dynamics
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Incorporating wheel axle inclination effects into a vehicle-bridge interaction system for vehicle scanning method — J. D. Yau, Judy P. Yang, et al. · International Journal of Structural Stability and Dynamics (2026) | TGRS Research Map | TGRS