This book presents a systematic framework—integrating field measurements, numerical simulations, and structural dynamics—for analyzing long-span sea-crossing bridges under extreme marine environments, featuring distinctive methodologies such as non-stationary wind-wave modeling, coupled SWAN+ADCIRC simulations, and Copula-based joint probabilistic estimation, all validated with typhoon data from the Pingtan Strait Bridge. Progressing from theory to application, it covers load calculations, substructure hydrodynamics, and full-bridge vibration, while offering a comprehensive workflow from environment characterization to response prediction, thus serving as a balanced, practical reference for researchers, engineers, and students in bridge, coastal, and ocean engineering, with critical guidance for resilient infrastructure design in deep-water, strong-wind regions.
This book presents a systematic framework—integrating field measurements, numerical simulations, and structural dynamics—for analyzing long-span sea-crossing bridges under extreme marine environments, featuring distinctive methodologies such as non-stationary wind-wave modeling, coupled SWAN+ADCIRC simulations, and Copula-based joint probabilistic estimation, all validated with typhoon data from the Pingtan Strait Bridge. Progressing from theory to application, it covers load calculations, substructure hydrodynamics, and full-bridge vibration, while offering a comprehensive workflow from environment characterization to response prediction, thus serving as a balanced, practical reference for researchers, engineers, and students in bridge, coastal, and ocean engineering, with critical guidance for resilient infrastructure design in deep-water, strong-wind regions.
Zilong Ti
Wind-wave coupling Typhoon-induced waves Extreme marine conditions wind-wave modeling Joint probability analysis Non-stationary response Hydrodynamic forces sea-crossing bridge