Virtual Tool Embodiment in Simulated Gravity Conditions

This study investigates the impact of different gravitational physics on virtual tool embodiment and examines whether cognitive load predicts the emergence of ownership and agency. We hypothesize that low-gravity environments enhance the sense of tool embodiment and that this enhancement correlates with reduced cognitive load. To this end, we devised a virtual reality experiment in which users both actively and passively experience normal, hyper-, and microgravity conditions during tool use. While the current sample size limits the statistical validation of our hypothesis, preliminary findings indicate promising trends supporting these predictions. These results contribute to a deeper understanding of how altered physical conditions influence virtual interactions. This has potential implications for virtual reality design, human-computer interaction, and space exploration applications.

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Publication Details

Published
2025-03-28
DOI
https://doi.org/10.1145/3712677.3720468
Citations
2
Primary Topic
Virtual Reality Applications and Impacts
Type
article
Field-Weighted Citation Impact
3.87
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article

Virtual Tool Embodiment in Simulated Gravity Conditions

Amir Jahanian Najafabadi, Ningyuan Sun, Jean Botev, Carolyn Kroger
2 citations
Virtual Reality Applications and Impacts
3.87
article

Virtual Tool Embodiment in Simulated Gravity Conditions

Amir Jahanian Najafabadi, Ningyuan Sun, Jean Botev, Carolyn Kroger
article en
2 citations

Abstract

This study investigates the impact of different gravitational physics on virtual tool embodiment and examines whether cognitive load predicts the emergence of ownership and agency. We hypothesize that low-gravity environments enhance the sense of tool embodiment and that this enhancement correlates with reduced cognitive load. To this end, we devised a virtual reality experiment in which users both actively and passively experience normal, hyper-, and microgravity conditions during tool use. While the current sample size limits the statistical validation of our hypothesis, preliminary findings indicate promising trends supporting these predictions. These results contribute to a deeper understanding of how altered physical conditions influence virtual interactions. This has potential implications for virtual reality design, human-computer interaction, and space exploration applications.

University of Luxembourg (LU), Bielefeld University (DE), University of Michigan (US)
Climate action
Openalex Percentile: Top 9%
Virtual Reality Applications and Impacts
3.87
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