Research Overview: Our research aims at advancing knowledge and building the scientific basis in the areas of wind, structural and coastal engineering, to establish resilient, smart and recoverable infrastructure and businesses along the coast.
 
Our research aims at advancing knowledge of wind, structural, and coastal engineering to improve community resilience and establish smart and recoverable infrastructure and businesses along the coast. Specifically, our research looks at the design and rehabilitation aspects of the natural and engineered built environments to survive single and multiple hazard stressors brought by natural disasters, such as windstorms and earthquakes. The goal is to increase the ability to prepare for and adapt to changing conditions, withstand and recover rapidly from disruptions, contribute to economic growth, and improve the quality of life.
 

The research activities are beneficial for students and researchers as they provide potential opportunities to learn with direct involvement in real-world projects. The research findings are directly applicable to solving challenging industry issues, fine-tune design codes, give coastal residents options for making their dwellings more storm resistant, and improving hurricane protection policies. The WISE Lab offers the following resources to research and industry:

Research Interests

  • Coastal Protection and Rehabilitation.
  • Model Verification and Validation for Understanding Community Resilience and the Effects of Natural Hazards on the Built Environment.
  • Resilient, Recoverable, and Sustainable Built and Natural Environments that Meet Community Objectives along the Coast.
  • Methods and Technology to Quantify and Forecast Infrastructure Resistance and Vulnerability.
  • Wind Engineering: Experimental/computational multiscale assessment of windstorms impact on the built environment, wind tunnel testing, physical modeling of the atmospheric boundary layer, open-jet testing, hurricane wind simulation, large-scale testing, bluff body aerodynamics, tornado, and down-burst effects on structures, computational fluid dynamics (CFD).
  • Heat Islands under Climate Change.
  • Performance and Resiliency Enhancement of the Built Environment for Coastal Hazards, for new and existing infrastructure: low-rise buildings, tall buildings, bridges, power transmission lines and towers, solar panels, wind turbines, offshore structures, green building envelope, etc.
  • Structural Dynamics/Control and Hazard Mitigation under Extreme wind and Earthquake Loads: intelligent structures, magneto-rheological fluid dampers, passive/active tuned mass dampers, pounding tuned mass dampers, semi-active bracing systems, dissipative and probabilistic methods for semi-active control design.
  • Codification of Environmental Loads on Structures: Wind Speed-Up Factors, and Wind Loads.
  • Renewable Energy: Solar Panels and Arrays, and Wind Turbines.
  • Bridge Scour: Modeling and Countermeasures.
  • Structural Health Monitoring and Smart Detection Systems for Transportation Infrastructure and Traffic Control.
  • Overheight Vehicles Impact Avoidance and Incident Detection Systems.