Publication Details
How Capturing Camera Trajectory Distortion Affects User Experience on Looking Glass 3D Display
Milet Tomáš, Ing., Ph.D. (DCGM)
Zemčík Pavel, prof. Dr. Ing., dr. h. c. (DCGM)
Looking Glass, 3D display, holography, stereoscopic display
This paper proposes an evaluation method for an optimal scene capture for a 3D
display. The method analyzes multi-view data to determine capture guidelines. An
user study was conducted to verify the proposed method and to discover the
distortion limits of the optimal capturing camera positions. The discovered
limits are 0.3° in rotations and 4px in the translation of the area of interest.
Different variants of distortions were compared and their significance in visual
degradation was evaluated. Rotational distortions were the most tolerated by
users, followed by translational and combined. The solid-color background and
suppressed head motion increase the user's tolerance to the artifacts. The paper
also proposes a 2D-reprojection-based correction method for unsuitably captured
scenes. In some cases, this reprojection increased the measured limits by up to
60× compared to the uncorrected distortions and proved to be effective. This
study supplements existing studies with a large set of previously unexplored
measurements and provides results relevant to current state-of-the-art 3D
displays. It reveals important information for possible future 3D display
rendering or capture methods. The images captured and corrected according to the
proposed method can be displayed directly on a 3D display by Looking Glass
Factory, creating a 3D effect without additional VR or AR equipment.
@article{BUT185189,
author="Tomáš {Chlubna} and Tomáš {Milet} and Pavel {Zemčík}",
title="How Capturing Camera Trajectory Distortion Affects User Experience on Looking Glass 3D Display",
journal="MULTIMEDIA TOOLS AND APPLICATIONS",
year="2024",
volume="2024",
number="83",
pages="20265--20287",
doi="10.1007/s11042-023-16350-5",
issn="1573-7721",
url="https://link.springer.com/article/10.1007/s11042-023-16350-5"
}