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XR Training & Education

Immersive training and learning environments, cognitive load in instruction, and how immersive experiences shape interest and retention in computing.

Overview

We have been looking at computer science education, wind and fluids engineering, and US Navy training systems to improve learning. We have used different approaches, including cognitive load theory.

One example of how we conduct research is through controlled training studies, where we measure the outcomes. For the Office of Naval Research, we followed people from initial training into task performance in virtual reality, manipulating workload to see how cognitive engagement carries from one to the other. More recently, in a paper accepted to IEEE ISMAR 2026, we used a wind-simulation environment built for engineering education — where moving a building changes the simulated airflow around it — to study how people naturally interact with these learning environments in both augmented and virtual reality.

Our work has shown how to measure training using traditional human-factors metrics and psychophysiological measures (EEG and fNIRS), and what those measures mean for training. One of the most powerful messages, found in one of our soon-to-be-published papers, is that self-assessment questionnaires such as NASA-TLX, while useful in many cases, miss important information about learning that fNIRS does not.

  • Training optimization & extraneous load
  • Immersive learning environments
  • Engagement & retention in computing

Supported by ONR · NSF · grants behind this work

Papers in this area 21

Conference Papers 4

Workshop Articles 6

Posters & Late-Breaking 3

Invited Papers 3

Other Referred Papers 1

  • Vertically Integrated Projects (VIP) Programs: Multidisciplinary Projects with Homes in Any Discipline In ASEE Annual Conference & Exposition, Columbus, Ohio 2017

Pre-Prints 3

Technical Reports 1

See these in the full publication list →

Funding for this area 5

Active

  • NSF I-USE · co-PI Collaborative Research: Improving Conceptual Understanding of Invisible Physics by Translating the Science of Learning into Virtual Reality Environments $750,000 · 2025 – 2028
  • ONR DURIP · PI Training Optimization for US Navy and Marine Radio Operations to Assess Cognitive Load and Manage Extraneous Load $500,000 · 2024 – 2026
  • Office of Naval Research · PI Assessing Cognitive Load and Managing Extraneous Load to Optimize Training $1,050,000 awarded to date · 2023 – 2026

Completed

  • NSF Future of Work · co-PI (PI: Benjamin Clegg) FW-HTF-P: Optimizing Long-Term Human Performance in Future Work $150,000 · 2019 – 2021
  • Florida Center for Cybersecurity (FC2) · co-PI (PI: Peter Clarke, FIU) Using a Cyberlearning Environment to Enhance Critical Cybersecurity Education $100,000 · 2017
All lab funding →