ARPOV: Expanding Visualization of Object Detection in AR with Panoramic Mosaic Stitching

As the uses of augmented reality (AR) become more complex and widely available, AR applications will increasingly incorporate intelligent features that require developers to understand the user's behavior and surrounding environment (e.g. an intelligent assistant). Such applications rely on video captured by an AR headset, which often contains disjointed camera movement with a limited field of view that cannot capture the full scope of what the user sees at any given time. Moreover, standard methods of visualizing object detection model outputs are limited to capturing objects within a single frame and timestep, and therefore fail to capture the temporal and spatial context that is often necessary for various domain applications. We propose ARPOV, an interactive visual analytics tool for analyzing object detection model outputs tailored to video captured by an AR headset that maximizes user understanding of model performance. The proposed tool leverages panorama stitching to expand the view of the environment while automatically filtering undesirable frames, and includes interactive features that facilitate object detection model debugging. ARPOV was designed as part of a collaboration between visualization researchers and machine learning and AR experts; we validate our design choices through interviews with 5 domain experts.

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Publication Details

Published
2024-09-30
DOI
https://doi.org/10.1109/sibgrapi62404.2024.10716346
Primary Topic
Augmented Reality Applications
Type
article
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article

ARPOV: Expanding Visualization of Object Detection in AR with Panoramic Mosaic Stitching

Ethan Brewer, Claudio Silva, Erin McGowan
Augmented Reality Applications
article

ARPOV: Expanding Visualization of Object Detection in AR with Panoramic Mosaic Stitching

Ethan Brewer, Claudio Silva, Erin McGowan
article en

Abstract

As the uses of augmented reality (AR) become more complex and widely available, AR applications will increasingly incorporate intelligent features that require developers to understand the user's behavior and surrounding environment (e.g. an intelligent assistant). Such applications rely on video captured by an AR headset, which often contains disjointed camera movement with a limited field of view that cannot capture the full scope of what the user sees at any given time. Moreover, standard methods of visualizing object detection model outputs are limited to capturing objects within a single frame and timestep, and therefore fail to capture the temporal and spatial context that is often necessary for various domain applications. We propose ARPOV, an interactive visual analytics tool for analyzing object detection model outputs tailored to video captured by an AR headset that maximizes user understanding of model performance. The proposed tool leverages panorama stitching to expand the view of the environment while automatically filtering undesirable frames, and includes interactive features that facilitate object detection model debugging. ARPOV was designed as part of a collaboration between visualization researchers and machine learning and AR experts; we validate our design choices through interviews with 5 domain experts.

Vol. 139
New York University (US)
Openalex Percentile: Top 82%
Augmented Reality Applications
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ARPOV: Expanding Visualization of Object Detection in AR with Panoramic Mosaic Stitching — Ethan Brewer, Claudio Silva, et al. · (2024) | TGRS Research Map | TGRS