Transportation Engineering
Doctor of Philosophy (Ph.D.)
The University of Texas at El Paso
2025
Ehsan Yahyazadeh Rineh, Ph.D., EIT, is a Postdoctoral Researcher at Howard University’s REPS Tier 1 University Transportation Center. His research focuses on transportation modeling and simulation, traffic operations, Intelligent Transportation Systems (ITS), transportation safety, connected and automated transportation, and transportation electrification. At Howard, he is currently contributing to transportation safety and operations research through REPS in collaboration with the District Department of Transportation (DDOT).
Before joining Howard University, he worked as a Postdoctoral Researcher at The University of Texas at El Paso (UTEP) through the National Science Foundation (NSF) Engineering Research Center for Advancing Sustainability through Powered Infrastructure for Roadway Electrification (ASPIRE), where his research focused on Dynamic Wireless Power Transfer (DWPT) systems, including transportation modeling, traffic simulation, infrastructure planning, and optimization.
During his Ph.D. studies at UTEP, he conducted transportation electrification research through the ASPIRE. His work included statewide electric vehicle charging demand analysis along intercity corridors and citywide agent-based modeling of Electric Vehicle (EV) charging demand. His doctoral dissertation focused on discretionary lane-changing behavior and the development of Fuzzy Inference System (FIS)-based lane-changing decision models using vehicle trajectory data.
He has also contributed to research on Emergency Medical Services (EMS) and Connected and Automated Vehicle (CAV) preemption through the U.S. Department of Transportation Center for Efficient Mobility. His broader research experience includes driving simulator applications related to driver behavior, training, and transportation safety.
Before beginning his doctoral studies in the United States, he gained approximately seven years of professional experience in transportation engineering and planning consulting, contributing to roadway and transportation infrastructure projects.
Doctor of Philosophy (Ph.D.)
The University of Texas at El Paso
2025
Master of Science (M.Sc.)
Sharif University of Technology
2015
Agent-based modeling, traffic microsimulation, travel demand analysis, calibration, validation, and scenario evaluation.
Traffic operations, signal systems, connected transportation, real-time information, and operational analysis.
Traffic safety analysis, driver behavior modeling, lane-changing behavior, and data-driven safety applications.
Electric vehicle charging demand, dynamic wireless power transfer, infrastructure planning, and electrified transportation systems.
Optimization methods, spatial analysis, GIS, machine learning, and data-driven transportation applications.
U.S. Department of Transportation (USDOT)
REPS Tier 1 University Transportation Center, Howard University
Recognized by the Texas District of the Institute of Transportation Engineers for academic achievement, research, leadership, and service in transportation engineering.
Served as President of the ITE UTEP Student Chapter during 2024–2025, supporting student activities, professional development, and transportation engineering engagement.
Earned EIT certification after passing the FE Civil examination.
Develops a MATSim-based agent-based model to predict spatial and temporal public EV charging demand at the city scale.
Improves fuzzy-inference-based lane-changing decision models by incorporating additional interaction variables and evaluating their performance for discretionary lane changes.
Reviews and evaluates fuzzy-inference approaches for discretionary lane-changing decisions and identifies opportunities for improving their accuracy and applicability.
Presents a methodology using statewide travel models, EV adoption data, and traffic volumes to forecast hourly charging demand and station capacity along intercity highways.
Compares fuzzy inference systems, support vector machines, and artificial neural networks for predicting discretionary lane-changing decisions using vehicle trajectory data.
Provides a theoretical explanation for an empirical safe-gap relationship used in freeway lane-changing models, linking the formulation to the relativity principle.
Examines the use of a driving simulator for exposure therapy and training to help individuals with driving phobia and evaluate changes in driving-related anxiety and behavior.