Hydroclimatic Risk Assessment and Multivariate Extremes in Civil Infrastructure
Explore hydroclimatic risk and multivariate extremes to improve civil infrastructure resilience. Engage in applied and theoretical research developing new statistical and hydrological tools at UCF's Department of Civil, Environmental and Construction Engineering.
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Project Description
Project Overview
This research project addresses the challenges of hydroclimatic extremes and risk assessment with direct applications in civil infrastructure resilience, flood modeling, and climate adaptation. Key focus areas include compound extreme events, severe storm impacts on critical infrastructure, spatiotemporal downscaling using multifractal scaling, and stochastic/statistical hydrology. The project combines applied and theoretical approaches to improve understanding and predictive modeling of hydroclimatic risks amid climate change.
What You Will Do
As a PhD student or Postdoctoral Scholar, you will engage in developing and applying advanced statistical, mathematical, and computational tools for multivariate extremes and hydroclimatic risk. Your work will involve studying compound events, downscaling techniques, and hydrological-hydraulic modeling, focusing on real-world problems impacting resilience and adaptation. Collaborative and independent research within an interdisciplinary team will be key to accomplishing project goals.
Expected Outcomes
The research will produce new insights and robust methodologies for understanding and managing hydroclimatic risks and their impacts on infrastructure systems. This includes improved risk assessment frameworks, enhanced flood models, and innovative approaches to climate adaptation strategies. These outcomes will have practical implications for disaster preparedness, urban planning, environmental policy, and sustainable development.
Why This Matters
With climate change increasing the frequency and severity of extreme weather events, this work addresses critical vulnerabilities in infrastructure and communities. By advancing knowledge and tools for hydroclimatic risk assessment, the research supports building resilient infrastructure capable of withstanding extreme events, thereby protecting lives, property, and economic wellbeing at local and global scales.