Physiological and Behavioral Response Differences Between Video-Mediated and In-Person Interaction

This study investigates how virtual communication differs from in-person interaction across physiological and behavioral domains, with the goal of informing future interface design. Using a naturalistic setup, we recorded multimodal biosignals, including eye tracking, head and hand movement, heart rate, respiratory rate, and EEG during both in-person and video-based dialogues. Our results show that virtual communication significantly reduces movement and gaze dynamics, particularly in horizontal eye movements and lateral head motion, reflecting both sender- and receiver-side constraints. These physical limitations likely stem from the need to remain within the camera frame and the restricted access to nonverbal cues. Pupil dilation was significantly greater during in-person conversations, consistent with increased arousal during natural communication. Heart rate and EEG trends similarly suggested heightened engagement in face-to-face settings, though interpretation of EEG was limited by movement artifacts. Together, the findings highlight how virtual platforms alter embodied interaction, underscoring the need to address both mobility and visual access in future communication technologies to better support co-presence.

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Publication Details

Journal
Sensors
Published
2025-12-20
DOI
https://doi.org/10.3390/s26010034
Primary Topic
Virtual Reality Applications and Impacts
Type
article
Field-Weighted Citation Impact
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article

Physiological and Behavioral Response Differences Between Video-Mediated and In-Person Interaction

Christopher Tacca, Christoph Tremmel, Schraefel MC, Daniel Hobson et al.
Sensors
Virtual Reality Applications and Impacts
article

Physiological and Behavioral Response Differences Between Video-Mediated and In-Person Interaction

Christopher Tacca, Christoph Tremmel, Schraefel MC, Daniel Hobson, Nathan T. M. Huneke
article en

Abstract

This study investigates how virtual communication differs from in-person interaction across physiological and behavioral domains, with the goal of informing future interface design. Using a naturalistic setup, we recorded multimodal biosignals, including eye tracking, head and hand movement, heart rate, respiratory rate, and EEG during both in-person and video-based dialogues. Our results show that virtual communication significantly reduces movement and gaze dynamics, particularly in horizontal eye movements and lateral head motion, reflecting both sender- and receiver-side constraints. These physical limitations likely stem from the need to remain within the camera frame and the restricted access to nonverbal cues. Pupil dilation was significantly greater during in-person conversations, consistent with increased arousal during natural communication. Heart rate and EEG trends similarly suggested heightened engagement in face-to-face settings, though interpretation of EEG was limited by movement artifacts. Together, the findings highlight how virtual platforms alter embodied interaction, underscoring the need to address both mobility and visual access in future communication technologies to better support co-presence.

SensorsVol. 26(1)
University of Southampton (GB)
Openalex Percentile: Top 35%
Virtual Reality Applications and Impacts
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Physiological and Behavioral Response Differences Between Video-Mediated and In-Person Interaction — Christopher Tacca, Christoph Tremmel, et al. · Sensors (2025) | TGRS Research Map | TGRS