Demand Modeling for Advanced Air Mobility: Challenges, Opportunities, and Future Directions
Surveys AAM demand-modeling approaches and identifies gaps in behavior, infrastructure, and operational constraints.
Postdoctoral Research Associate at Baylor University
Doctoral research and peer-reviewed work in Advanced Air Mobility, neurosymbolic AI, intelligent transportation, optimization, and trustworthy machine learning.
A small selection spanning air-mobility demand, infrastructure planning, and neurosymbolic AI.
Surveys AAM demand-modeling approaches and identifies gaps in behavior, infrastructure, and operational constraints.
Connects tract-level demand forecasts to energy-aware decisions about Regional Air Mobility portal locations.
Maps neurosymbolic AI approaches to AAM challenges, with a focus on transparency, reliability, and aviation constraints.
Reviews methods for translating knowledge in large language models into explicit symbolic representations that support interpretability and efficiency.
Ph.D. Dissertation · 2026
This dissertation develops practical and interpretable ways to estimate who may use future air mobility services, where demand may emerge, and how data-driven forecasts can better support transportation planning.