Projects

Spatial intelligence, immersive systems, and technologies that connect human vision with computation.

Recent work

2026 · Research

Spatial-IQ

Hierarchical capability tests help pinpoint where multimodal models succeed or fail at spatial reasoning.

2026 · Research

Radiance fields on light field displays

Efficient rendering connects radiance field representations with interactive, glasses-free 3D displays.

2025 · VSS

Perceptual evaluation of video artifacts

Human-observer experiments examine artifact detection across different video comparison interfaces.

Jung Lab research · 2015–2024

Research programs developed at Harvard Medical School and Mass Eye and Ear.

Virtual Reality Simulation of Mobility — research illustration 1

Virtual Reality Simulation of Mobility

Immersive VR walking environments measure how people detect and avoid approaching pedestrians. Built with Unity and head-mounted displays, the simulations reproduce crowded spaces while recording natural walking behavior.

Funding & support
  • 09/2020 – 08/2024, Monocular Visual Confusion for Field Expansion, NIH/NEI R01 – EY031777
Augmented Reality for Field Expansion (Vision Multiplexing) — research illustration 1Augmented Reality for Field Expansion (Vision Multiplexing) — research illustration 2

Augmented Reality for Field Expansion (Vision Multiplexing)

Optical see-through devices and multiplexing prisms expand the visual field for people with field loss. This work studies how visual confusion, binocular rivalry, contrast, depth cues, and motion affect mobility.

Funding & support
  • 09/2020 – 08/2024, Monocular Visual Confusion for Field Expansion, NIH/NEI R01 – EY031777
  • 07/2018 – 12/2019, Field Expansion for Acquired Monocular Vision using Multiplexing Prism, Fight for Sight Grant #GA18003
Computational Model of Visual Perception and Binocular Vision — research illustration 1

Computational Model of Visual Perception and Binocular Vision

Computational and psychophysical studies examine how overlapping views are combined or compete in binocular vision. The goal is to understand visual perception in field-expansion devices and AR displays.

Funding & support
  • 09/2020 – 08/2024, Monocular Visual Confusion for Field Expansion, NIH/NEI R01 – EY031777
  • 09/2019 – 08/2024, Visual field expansion through innovative multi-periscopic prism design, NIH/NEI R01- EY023385 (Co-Investigator)
Active Confocal Imaging for Visual Prostheses — research illustration 1

Active Confocal Imaging for Visual Prostheses

Light-field imaging emphasizes objects of interest while suppressing background clutter. Active confocal imaging explores front-end processing for retinal and cortical implants and sensory substitution devices.

Funding & support
  • 01/2016 – 01/2021, Active confocal imaging for visual prostheses, US Department of Defense, W81XWH-16-1-0033
  • 02/2015-10/2015, Active confocal imaging for visual prostheses, Grant from the Promobilia Foundation, Sweden #14222
Light-Field Imaging and Computational Photography — research illustration 1

Light-Field Imaging and Computational Photography

Integral imaging uses microlens arrays to capture and reconstruct 3D scenes. The work includes real-time reconstruction, depth extraction, confocal image generation, and background suppression for object recognition.

Funding & support
  • 01/2016 – 01/2021, Active confocal imaging for visual prostheses, US Department of Defense, W81XWH-16-1-0033
  • 12/2012-12/2013, Study on effect of super multi-view condition in three-dimensional display to accommodation response and improvement of optical vision rehabilitation device, National Research Foundation of Korea, 2012R1A6A3A03038820 (PI)