Swash- and surf-zone hydrodynamics
Oblique wave forcing
Bed shear stress, velocities, and sediment transport
Laboratory-field transfer of process understanding
Hurricane-driven coastal change and riverine flood impacts
Barrier island breach initiation and evolution
Rapid, multidisciplinary post-storm reconnaissance
Integration of hydrodynamics, geotechnics, and morphology
Development of new methods for during-event and rapid reconnaissance data collection on soil-water interaction
Real-time coastal and riverine monitoring
Sensor networks and rapid field assessment (e.g. DCP, LiDAR, buoys)
Data-to-decision frameworks for emergency response
Linking physical processes to infrastructure performance and management
Swash zone dynamics driven by obliquely incident waves (University of Delaware, U.S., University of Wisconsin-Madison, U.S., Queen's University, Canada), funded by the National Science Foundation (NSF)
(2023-2025)
EAGER: Collaborative Research: Longitudinal Investigation of Two Hurricane-Generated Barrier Island Breaches in Southwest Florida, funded by the National Science Foundation (NSF), Award Number: 2540210, co-PI.
(2025- 2027).
Real-Time Wave Buoy and Water Level Sensor Network for Delaware, funded by MARACOOS (Mid-Atlantic Regional Association Coastal Ocean Observing System)
(2024-2025)
UnMES Demonstration of Munitions Migration and Burial at Mile Beach, ME, funded by SERDP/ESTCP
(2024-2025)
🤝 Excited to officially establish a scientific partnership with SOL SOLUTION 🤝
I’m happy to share that our collaboration between Sol Solution and University of Applied Sciences has now officially reached the next level with a formal scientific partnership.
I have been working with the PANDA dynamic penetrometer from SOL SOLUTION in my research and reconnaissance field work since 2024, and it has been exciting to see how this collaboration has grown over time.
Looking forward to future collaboration, including field work and experiments in Germany and the United States.