Human Factors Engineering PhD Student
I am a third-year Ph.D. student in Industrial and Systems Engineering at the University of Wisconsin-Madison, specializing in human behavior modeling within human-machine systems. My research focuses on understanding how humans adapt to and behave within automated technologies, particularly studying remote operation of highly automated vehicles and exploring the development of trust and reliance in human-automation interactions.
I am currently seeking Spring/Summer 2026 internship opportunities as a Human Factors Researcher/Engineer or User Experience Researcher. I am eager to apply my expertise in human factors research and machine learning to real-world challenges, with particular interest in opportunities related to driving/transportation safety and human-machine interaction.
Education:
Doctor of Philosophy
Industrial and Systems Engineering
University of Wisconsin-Madison • Expected 2027
Master of Science
Electrical and Computer Engineering
University of Florida • 2023
Bachelor of Engineering
Electronic and Information Engineering
Xidian University • 2020
Research Interests:
Human-Automation Interaction, Human-Machine Systems, Human Behavioral Modeling, Driving Automation, Remote Driving, Trust in Automation
Automation will play a crucial role in the future of trucking; however, remote operators will remain essential for maintaining efficiency and safety. This project explores optimization methods for remote driving systems, focusing on latency management, multi-vehicle control modeling, and novel control algorithm integration.
Sponsored by: National Science Foundation (NSF)
Although automated vehicles promise enhanced safety and mobility, public concerns during human-automation transitions reveal the need for calibrated trust. This project develops neural-based trust measures and behavioral models to ensure driver trust aligns with system capabilities through comprehensive simulation studies.
Sponsored by: National Science Foundation (NSF)
Driving represents a critical activity of daily living and serves as a health benchmark for individuals with acute and chronic conditions. This research series explores naturalistic driving patterns and employs qualitative methods to understand driving transitions and develop evidence-based tools for enhancing driving safety.
Eye-tracking data provides crucial insights into driver behavior, yet current methods rely on oversimplified representations or excessive computational resources. This research presents a novel statistical approach that efficiently extracts unique visual scanning patterns from driving data using advanced time series analysis.
This research examines how in-vehicle automation technologies can reduce driving errors and enhance safety for individuals with Parkinson's disease, demonstrating that adaptive cruise control and driver assistance systems effectively compensate for cognitive deficits during real-world on-road testing.